Argo synthetic profile 1.0 1.2 1950010100000020260625130525202606251305252902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 2902087 Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran M Ravichandran PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700
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PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_II I PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 12_IND-FLBB-01 OIN 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GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS GPS PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 oth erwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA/2 BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA )/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) none none none 1.0159 CHLA_NPQ = 0.03066, ZMaxFluo = 9.2, PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.105485, ZMaxFluo = 42.7, PRELIM_DARK_CHLA = [52,53], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0584, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,53,52.6], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.047085, ZMaxFluo = 11.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03796, ZMaxFluo = 22.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02701, ZMaxFluo = 7.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 9.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02774, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0315725, ZMaxFluo = 1.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01971, ZMaxFluo = 9.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.036135, ZMaxFluo = 8.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03066, ZMaxFluo = 7.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04526, ZMaxFluo = 8.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.07446, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03796, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 22.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.047085, ZMaxFluo = 17.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.029565, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.031025, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.025185, ZMaxFluo = 9.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.025185, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0292, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03431, ZMaxFluo = 32.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02482, ZMaxFluo = 22.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.011315, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01241, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.96614 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.015695, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.96614 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.96614 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0292, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.96614 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03796, ZMaxFluo = 6.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.96614 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04526, ZMaxFluo = 2.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.072635, ZMaxFluo = 1.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0365, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04307, ZMaxFluo = 9.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02774, ZMaxFluo = 12.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04234, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.06424, ZMaxFluo = 8.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0511, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04526, ZMaxFluo = 13.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 11.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.028835, ZMaxFluo = 19.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05986, ZMaxFluo = 23.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.856355 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.856355 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.06716, ZMaxFluo = 29.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05621, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0717225, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.09271, ZMaxFluo = 22.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.17666, ZMaxFluo = 1.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.18761, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.17301, ZMaxFluo = 41.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.06716, ZMaxFluo = 25.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05986, ZMaxFluo = 27.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 13.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01971, ZMaxFluo = 14.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01241, ZMaxFluo = 10.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02701, ZMaxFluo = 10.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.090885, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03431, ZMaxFluo = 15.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.07811, ZMaxFluo = 24.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05621, ZMaxFluo = 15.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05256, ZMaxFluo = 13.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.88796 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05183, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.050005, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.08541, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.08614, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04161, ZMaxFluo = 2.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0657, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.13724, ZMaxFluo = 32, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.06351, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04015, ZMaxFluo = 32, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.08614, ZMaxFluo = 38, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.087965, ZMaxFluo = 42.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0949, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.160235, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.10731, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04526, ZMaxFluo = 7.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03796, ZMaxFluo = 0.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.15695, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.12994, ZMaxFluo = 8.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.21827, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.15476, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04891, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.856355 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04891, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.856355 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.101835, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.856355 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.08833, ZMaxFluo = 8.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.856355 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.13651, ZMaxFluo = 2.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.856355 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.043435, ZMaxFluo = 1.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.905962 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.028835, ZMaxFluo = 5.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.09636, ZMaxFluo = 62.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.10366, ZMaxFluo = 54.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.077015, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.120085, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0584, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 7.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.031755, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.029565, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03869, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.08687, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02482, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02847, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.050735, ZMaxFluo = 17, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.08687, ZMaxFluo = 9.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04891, ZMaxFluo = 8.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05475, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.907416 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05475, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03431, ZMaxFluo = 1.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03504, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03066, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03066, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.033215, ZMaxFluo = 9.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.923942 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03431, ZMaxFluo = 9.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03942, ZMaxFluo = 12.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03577, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 8.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02044, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.054385, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03358, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.050005, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0511, ZMaxFluo = 43.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 8.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.952595 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01241, ZMaxFluo = 5.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00729999, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.908504 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00949, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00803, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.002555, ZMaxFluo = 9.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 7.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.000365003, ZMaxFluo = 22.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01022, ZMaxFluo = 12, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00657001, ZMaxFluo = 9.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00511, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02044, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.003285, ZMaxFluo = 23, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.926525 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.091615, ZMaxFluo = 28, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05329, ZMaxFluo = 42.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.07811, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.077015, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02993, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01971, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.058765, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.082855, ZMaxFluo = 16.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.112055, ZMaxFluo = 22.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05986, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.044165, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.105485, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.011315, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.003285, ZMaxFluo = 0.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 4.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03796, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02701, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01314, ZMaxFluo = 27.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.942562 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 27.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.003285, ZMaxFluo = 32.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00876, ZMaxFluo = 17.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00511, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.015695, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02847, ZMaxFluo = 47.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 8.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.006935, ZMaxFluo = 37.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00438, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00511, ZMaxFluo = 12.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.000365003, ZMaxFluo = 9.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.014965, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00511, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00292, ZMaxFluo = 9.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.000729994, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 5.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00182501, ZMaxFluo = 22.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 1.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01241, ZMaxFluo = 5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00365001, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00511, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.000729994, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00511, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.002555, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.940993 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 6.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.940993 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00511, ZMaxFluo = 4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.940993 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.940993 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.004745, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.940993 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 9.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -5.56946e-09, ZMaxFluo = 32.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 27.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00949, ZMaxFluo = 0.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00511, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00730001, ZMaxFluo = 9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00876, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.007665, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.929699 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.930932 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.930932 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.000729994, ZMaxFluo = 17.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.930932 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 13, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.930932 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.004015, ZMaxFluo = 9.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.930932 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.003285, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.906495 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02701, ZMaxFluo = 5.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.906495 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.017155, ZMaxFluo = 27.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.906495 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 22.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.906495 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.880135 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.017885, ZMaxFluo = 33.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00438, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00219, ZMaxFluo = 18, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.014965, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00584, ZMaxFluo = 8.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.003285, ZMaxFluo = 17.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01898, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.004015, ZMaxFluo = 12, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01387, ZMaxFluo = 37.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 0.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.918071 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01314, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.973591 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.000365003, ZMaxFluo = 52.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.973591 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 3.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.935317 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 8.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.935317 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00219, ZMaxFluo = 0.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.935317 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.935317 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.004015, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.935317 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00584, ZMaxFluo = 17.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.935317 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 0.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.935317 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.000729994, ZMaxFluo = 26.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00876, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00949, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.01314, ZMaxFluo = 0.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.008395, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.933387 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00949, ZMaxFluo = 0.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00949, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.00730001, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.004015, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.001095, ZMaxFluo = 32.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = -0.000365, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938977 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 21.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.938392 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.96614 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.011315, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 0.96614 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.017155, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.00274 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.032485, ZMaxFluo = 47.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.00303 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 52.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.00303 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.003285, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.00303 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.00303 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00146, ZMaxFluo = 7.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.00274 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.007665, ZMaxFluo = 17.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03334 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.007665, ZMaxFluo = 22.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.06686 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01168, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.11263 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00511, ZMaxFluo = 4.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.11263 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.06686 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 4.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.08421 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01241, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.08421 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.021535, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.14323 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.14323 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 6.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.09185 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.014235, ZMaxFluo = 7.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.09185 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 22.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.09185 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.09185 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01898, ZMaxFluo = 17.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.04023 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 2.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.04023 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02263, ZMaxFluo = 37.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.04023 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.0224475, ZMaxFluo = 1.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.07831 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02409, ZMaxFluo = 42.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.07831 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00949, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.07831 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00876, ZMaxFluo = 5.3, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.006935, ZMaxFluo = 18, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00584, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.02445 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.017885, ZMaxFluo = 1.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.02445 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03139, ZMaxFluo = 37.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.02445 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01898, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.02445 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.010585, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.02445 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00511, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.02445 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.00584, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05115 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.193815, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05115 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01168, ZMaxFluo = 7.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05115 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 5.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05115 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.020075, ZMaxFluo = 38, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.010585, ZMaxFluo = 1.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.01606, ZMaxFluo = 33, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.08176, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04161, ZMaxFluo = 2.8, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.03869, ZMaxFluo = 37.2, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.03037 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02336, ZMaxFluo = 3.6, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05592 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.02701, ZMaxFluo = 3.1, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05592 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.018615, ZMaxFluo = 9.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05592 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.022265, ZMaxFluo = 33, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05592 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.066065, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.05592 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.04526, ZMaxFluo = 27.9, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.07078 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05256, ZMaxFluo = 6.4, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.02501 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 none none none 1.0159 CHLA_NPQ = 0.05548, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53,52.6,52.6,52.3], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.07078 PRELIM_DARK_CHLA = [52,53.4,52.8,52.8,52.9], SCALE_CHLA = 0.0073 No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanc ed in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_ LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 Real-time CHLA adjustment following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO set to the last good extracted value. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and com puted with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10101 RTQC_FAILED 10001 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 10111 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1. 1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 10000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed wi th MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 00000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Met hod, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01010 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01100 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and comp uted with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJUSTED is being filled with BBP700 directly in real time. Adjustment method may be enhanced in the future. RTQC_APPLIED 11110 RTQC_FAILED 01000 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Sauzede et al., 2025 (https://doi.org/10.17882/105732)). PHYSIO_RATIO extracted from the LUT. CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 20250520113652202505201136522025052011365220190924130742202308072052442023080720524420230807205244 2026062509073620260625090736 20250520113653202505201136532025052011365320190924130742202308072052442023080720524420230807205244 2026062509073620260625090736 20250520113653202505201136532025052011365320190924130742202308072052442023080720524420230807205244 2026062509073720260625090737 20250520113654202505201136542025052011365420190924130742202308072052452023080720524520230807205245 2026062509073720260625090737 20250520113654202505201136542025052011365420190924130742202308072052452023080720524520230807205245 2026062509073720260625090737 20250520113654202505201136542025052011365420190924130742202308072052462023080720524620230807205246 2026062509073820260625090738 20250520113655202505201136552025052011365520190924130742202308072052462023080720524620230807205246 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aCjC33uCC͌CC3sC C C͌CffC CRCfCYCkC CfC3C͌C3sC͌C CLC @CLC͌C͌C3sCffCRxC C CC D3 D͌D D3sDuDl Du D "DÕ"D 'Dy,Dy1D3s6Dl;Dl@D ED3sJD3sODÕOD3sTDTD3sYDuYD3^D cD hD mD͌rD wD}D) }D DẁD ЄD3D3D)DfVDyD͜DD НD{ԝD DHD D 0DfFDGDlD{tDD{DͬDDɶD3D D @DfDiDD DHD3DD D 0DfVDZDfvD~DfDHD3DD3DDfDHD DD 0DH1D3SDYDOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOG=>333?33?ffF@̌@@33@ Aff A33KA A33A A B)\BffB *B >B PB\PBfBffzB BffBB33B33B̹BB BffBBBB BBfC CC33C33Cff C"Cq=#C3'Cf,CL1C
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ACECLMCfWCWC3`C33kC uCLCpCLC3sCfC CLCCRC3sCfCCC C͌CfCfC CC3sC͌CCC3CC͌C͌C C C C͌Cf&CQC D DfDlDuD D\D3 Dy"Dff'D3s,D͌1D͌6D͌;D͌@D ED `JD)|JD `ODuOD TDTDfYDff^DcD3shDymDyrD)|rD `wDbwD }D\/}DͼDD܄DD D,D.D PD{TDlD{tDfD{DDDɝD٠D3D,D3SDWDfvDHD DHDDܶD D D3SD{TD3CDlD͌D D DD3Df6D7D3SD{TD pDHqD͌DD3D{D D{DDD3D 0D `DDOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOGOG ? ?ff&@fff@ @@33@̼@@ @ffA33A HAA AA B)\BffB(Bff?fff?ff?333@33s@@̼@@@A HǍAAffA B33Bff(B33=B33QBQBfffByBBHBffB33BBBB33BBHB BBBHBBffB C CC C33C C3"C'CL,C1C6C ;C=;Cff@C33ECLMC
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