Argo synthetic profile 1.0 1.2 1950010100000020260625134507202606251345072902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 2902088 Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO Indian ARGO 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 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 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_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III PROVOR_III 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-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 OIN-12IND-FLBB-03 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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 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES TEMP PSAL DOXY CHLA CHLA_FLUORESCENCE BBP700 PRES 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 + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCE NCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES i n [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r 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 + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FL UORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r 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 + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) PRES_ADJUSTED = PRES none PSAL_ADJUSTED = PSAL + Delta_S, where Delta_S is calculated from a potential conductivity (ref to 0 dbar) multiplicative adjustment term r DOXY_ADJUSTED = DOXY*G, where G is the gain obtained from the SAGEO2 output CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/2 otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) BBP700_ADJUSTED = BBP700 CHLA_ADJUSTED = CHLA_NPQ for PRES in [0,ZMaxFluo], CHLA_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA)/PHYSIO_RATIO otherwise CHLA_FLUORESCENCE_ADJUSTED = ((FLUORESCENCE_CHLA-MEDIAN(PRELIM_DARK_CHLA))*SCALE_CHLA) none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0029789 (+/- 0.010074) 1.1506 CHLA_NPQ = 0.060225, ZMaxFluo = 47.6, PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.058765, ZMaxFluo = 47.6, PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16954 PRELIM_DARK_CHLA = [52], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0029008 (+/- 0.010034) 1.1506 CHLA_NPQ = 0.04599, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0450775, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.7], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16954 PRELIM_DARK_CHLA = [52,52.7], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0028237 (+/- 0.010018) 1.1506 CHLA_NPQ = 0.063875, ZMaxFluo = 57.5, PRELIM_DARK_CHLA = [52,52.2,52.4], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.06205, ZMaxFluo = 57.5, PRELIM_DARK_CHLA = [52,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16954 PRELIM_DARK_CHLA = [52,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0027455 (+/- 0.010004) 1.1506 CHLA_NPQ = 0.083585, ZMaxFluo = 63, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.082125, ZMaxFluo = 63, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16954 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0026691 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03942, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.037595, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16301 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0025832 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02409, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.022265, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16301 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0025083 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03869, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.036865, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0024284 (+/- 0.01) 1.1506 CHLA_NPQ = 0.082125, ZMaxFluo = 57.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0803, ZMaxFluo = 57.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.12901 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0023571 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00657, ZMaxFluo = 9.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.004745, ZMaxFluo = 9.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16354 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0022799 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02847, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.026645, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0022027 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05694, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.055115, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.12901 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0021271 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0584, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.056575, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0020492 (+/- 0.01) 1.1506 CHLA_NPQ = 0.020075, ZMaxFluo = 17.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01825, ZMaxFluo = 17.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1.0001 (+/- 0.0001) , vertically averaged dS =0.0019741 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03942, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.037595, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16354 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0018958 (+/- 0.01) 1.1506 CHLA_NPQ = 0.059495, ZMaxFluo = 47.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.05767, ZMaxFluo = 47.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16301 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0018218 (+/- 0.01) 1.1506 CHLA_NPQ = 0.08687, ZMaxFluo = 52.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.085045, ZMaxFluo = 52.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11648 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0017427 (+/- 0.01) 1.1506 CHLA_NPQ = 0.038325, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0365, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.10503 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0016652 (+/- 0.01) 1.1506 CHLA_NPQ = 0.042705, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04088, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.10503 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0015859 (+/- 0.01) 1.1506 CHLA_NPQ = 0.073, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.071175, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0015067 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04672, ZMaxFluo = 32.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.044895, ZMaxFluo = 32.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16954 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0014282 (+/- 0.01) 1.1506 CHLA_NPQ = 0.22922, ZMaxFluo = 52.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.227395, ZMaxFluo = 52.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.16301 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0013534 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03285, ZMaxFluo = 23, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.031025, ZMaxFluo = 23, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11648 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.001277 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04526, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.043435, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11648 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0011969 (+/- 0.01) 1.1506 CHLA_NPQ = 0.044895, ZMaxFluo = 37.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04307, ZMaxFluo = 37.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11648 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.0011202 (+/- 0.01) 1.1506 CHLA_NPQ = 0.09417, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.092345, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11648 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.001043 (+/- 0.01) 1.1506 CHLA_NPQ = 0.19199, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.190165, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00096564 (+/- 0.01) 1.1506 CHLA_NPQ = 0.041245, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.03942, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00088717 (+/- 0.01) 1.1506 CHLA_NPQ = 0.20805, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.206225, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00081098 (+/- 0.01) 1.1506 CHLA_NPQ = 0.073, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.071175, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00073391 (+/- 0.01) 1.1506 CHLA_NPQ = 0.15257, ZMaxFluo = 32.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.150745, ZMaxFluo = 32.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.1232 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00065657 (+/- 0.01) 1.1506 CHLA_NPQ = 0.14527, ZMaxFluo = 37.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.143445, ZMaxFluo = 37.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.12901 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00057912 (+/- 0.01) 1.1506 CHLA_NPQ = 0.110595, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.10877, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.12901 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00050155 (+/- 0.01) 1.1506 CHLA_NPQ = 0.06132, ZMaxFluo = 0.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.059495, ZMaxFluo = 0.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.07036 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00042329 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0073, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.005475, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.13653 PRELIM_DARK_CHLA = [52,52. 7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00034628 (+/- 0.01) 1.1506 CHLA_NPQ = 0.058765, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.05694, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11811 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00026948 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02774, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.025915, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.18218 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00019323 (+/- 0.01) 1.1506 CHLA_NPQ = 0.47377, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.471945, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.18218 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =0.00011524 (+/- 0.01) 1.1506 CHLA_NPQ = 0.08395, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.082125, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.15835 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 0.0001) , vertically averaged dS =3.776e-05 (+/- 0.01) 1.1506 CHLA_NPQ = 0.015695, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01387, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.10044 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 9e-05) , vertically averaged dS =-3.9511e-05 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01387, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.012045, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.10044 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 9e-05) , vertically averaged dS =-0.00011633 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03285, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.031025, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09371 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 1 (+/- 9e-05) , vertically averaged dS =-0.00019327 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01241, ZMaxFluo = 9.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.010585, ZMaxFluo = 9.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09528 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99999 (+/- 9e-05) , vertically averaged dS =-0.00027054 (+/- 0.01) 1.1506 CHLA_NPQ = 0.022265, ZMaxFluo = 17.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.02044, ZMaxFluo = 17.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04311 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99999 (+/- 9e-05) , vertically averaged dS =-0.000347 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02482, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.022995, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04311 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99999 (+/- 9e-05) , vertically averaged dS =-0.00042424 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00803001, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.00620501, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04311 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99999 (+/- 9e-05) , vertically averaged dS =-0.00050229 (+/- 0.01) 1.1506 CHLA_NPQ = 0.015695, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01387, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04311 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99999 (+/- 9e-05) , vertically averaged dS =-0.00057888 (+/- 0.01) 1.1506 CHLA_NPQ = 0.06935, ZMaxFluo = 12.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.067525, ZMaxFluo = 12.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04311 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99998 (+/- 9e-05) , vertically averaged dS =-0.00065649 (+/- 0.01) 1.1506 CHLA_NPQ = 0.019345, ZMaxFluo = 17.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01752, ZMaxFluo = 17.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09528 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99998 (+/- 9e-05) , vertically averaged dS =-0.0007343 (+/- 0.01) 1.1506 CHLA_NPQ = 0.06132, ZMaxFluo = 52.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.059495, ZMaxFluo = 52.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11332 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99998 (+/- 9e-05) , vertically averaged dS =-0.00081189 (+/- 0.01) 1.1506 CHLA_NPQ = 0.049275, ZMaxFluo = 62.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04745, ZMaxFluo = 62.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11332 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99998 (+/- 9e-05) , vertically averaged dS =-0.000891 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03504, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.033215, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11332 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99998 (+/- 8e-05) , vertically averaged dS =-0.00096737 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03723, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.035405, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.11332 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99997 (+/- 8e-05) , vertically averaged dS =-0.0010461 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01752, ZMaxFluo = 5.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.015695, ZMaxFluo = 5.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.0647 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99997 (+/- 8e-05) , vertically averaged dS =-0.0011221 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0438, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.041975, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.0647 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99997 (+/- 8e-05) , vertically averaged dS =-0.0011989 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04015, ZMaxFluo = 37.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.038325, ZMaxFluo = 37.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.01874 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99997 (+/- 8e-05) , vertically averaged dS =-0.0012783 (+/- 0.01) 1.1506 CHLA_NPQ = 0.06935, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.067525, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04311 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99997 (+/- 8e-05) , vertically averaged dS =-0.0013559 (+/- 0.01) 1.1506 CHLA_NPQ = 0.114975, ZMaxFluo = 62.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.11315, ZMaxFluo = 62.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04311 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99996 (+/- 8e-05) , vertically averaged dS =-0.0014334 (+/- 0.01) 1.1506 CHLA_NPQ = 0.074095, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.07227, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.04017 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99996 (+/- 8e-05) , vertically averaged dS =-0.0015088 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05621, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.054385, ZMaxFluo = 32.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98859 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99996 (+/- 8e-05) , vertically averaged dS =-0.0015826 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02555, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.023725, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99065 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99996 (+/- 8e-05) , vertically averaged dS =-0.0016603 (+/- 0.01) 1.1506 CHLA_NPQ = 0.051465, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04964, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99996 (+/- 8e-05) , vertically averaged dS =-0.0017347 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05767, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.055845, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99995 (+/- 8e-05) , vertically averaged dS =-0.0018112 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00657, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.004745, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99995 (+/- 8e-05) , vertically averaged dS =-0.0018877 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05986, ZMaxFluo = 42.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.058035, ZMaxFluo = 42.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99995 (+/- 8e-05) , vertically averaged dS =-0.0019655 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0365, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.034675, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98665 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99995 (+/- 7e-05) , vertically averaged dS =-0.0020429 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02847, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.026645, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98665 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99995 (+/- 7e-05) , vertically averaged dS =-0.0021204 (+/- 0.01) 1.1506 CHLA_NPQ = 0.063875, ZMaxFluo = 57.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.06205, ZMaxFluo = 57.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08814 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99994 (+/- 7e-05) , vertically averaged dS =-0.0021963 (+/- 0.01) 1.1506 CHLA_NPQ = 0.08322, ZMaxFluo = 37.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.081395, ZMaxFluo = 37.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08094 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99994 (+/- 7e-05) , vertically averaged dS =-0.0022739 (+/- 0.01) 1.1506 CHLA_NPQ = 0.056575, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.05475, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99065 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99994 (+/- 7e-05) , vertically averaged dS =-0.0023536 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05475, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.052925, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98859 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99994 (+/- 7e-05) , vertically averaged dS =-0.0024328 (+/- 0.01) 1.1506 CHLA_NPQ = 0.071175, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.06935, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98859 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99994 (+/- 7e-05) , vertically averaged dS =-0.0025135 (+/- 0.01) 1.1506 CHLA_NPQ = 0.22995, ZMaxFluo = 47.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.228125, ZMaxFluo = 47.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99065 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99993 (+/- 7e-05) , vertically averaged dS =-0.0025871 (+/- 0.01) 1.1506 CHLA_NPQ = 0.095265, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.09344, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99993 (+/- 7e-05) , vertically averaged dS =-0.0026639 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05913, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.057305, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08814 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99993 (+/- 7e-05) , vertically averaged dS =-0.0027416 (+/- 0.01) 1.1506 CHLA_NPQ = 0.24455, ZMaxFluo = 47.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.242725, ZMaxFluo = 47.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98665 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99993 (+/- 7e-05) , vertically averaged dS =-0.0028184 (+/- 0.01) 1.1506 CHLA_NPQ = 0.205495, ZMaxFluo = 72.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.20367, ZMaxFluo = 72.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98665 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99993 (+/- 7e-05) , vertically averaged dS =-0.0028923 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0219, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.020075, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98665 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99992 (+/- 7e-05) , vertically averaged dS =-0.0029675 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0073, ZMaxFluo = 9.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.005475, ZMaxFluo = 9.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.01972 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99992 (+/- 7e-05) , vertically averaged dS =-0.0030359 (+/- 0.01) 1.1506 CHLA_NPQ = 0.020075, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01825, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.88587 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99992 (+/- 7e-05) , vertically averaged dS =-0.0031133 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05402, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.052195, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99992 (+/- 7e-05) , vertically averaged dS =-0.0031958 (+/- 0.01) 1.1506 CHLA_NPQ = 0.009125, ZMaxFluo = 12.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0073, ZMaxFluo = 12.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.89467 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99992 (+/- 7e-05) , vertically averaged dS =-0.0032719 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05548, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.053655, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.8326 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99991 (+/- 6e-05) , vertically averaged dS =-0.0033492 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00657, ZMaxFluo = 8.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.004745, ZMaxFluo = 8.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99991 (+/- 6e-05) , vertically averaged dS =-0.0034256 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01825, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.016425, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99991 (+/- 6e-05) , vertically averaged dS =-0.0035055 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03431, ZMaxFluo = 22.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.032485, ZMaxFluo = 22.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.88587 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99991 (+/- 6e-05) , vertically averaged dS =-0.0035838 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04234, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.040515, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.88587 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99991 (+/- 6e-05) , vertically averaged dS =-0.0036632 (+/- 0.01) 1.1506 CHLA_NPQ = 0.048545, ZMaxFluo = 42.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04672, ZMaxFluo = 42.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98665 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9999 (+/- 6e-05) , vertically averaged dS =-0.0037375 (+/- 0.01) 1.1506 CHLA_NPQ = 0.012045, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01022, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08814 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9999 (+/- 6e-05) , vertically averaged dS =-0.0038167 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02701, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.025185, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08094 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9999 (+/- 6e-05) , vertically averaged dS =-0.0038961 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01752, ZMaxFluo = 32.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.015695, ZMaxFluo = 32.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9999 (+/- 6e-05) , vertically averaged dS =-0.0039726 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04745, ZMaxFluo = 37.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.045625, ZMaxFluo = 37.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9999 (+/- 6e-05) , vertically averaged dS =-0.0040522 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04672, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.044895, ZMaxFluo = 0.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99989 (+/- 6e-05) , vertically averaged dS =-0.0041302 (+/- 0.01) 1.1506 CHLA_NPQ = 0.030295, ZMaxFluo = 37.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.02847, ZMaxFluo = 37.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99989 (+/- 6e-05) , vertically averaged dS =-0.0042016 (+/- 0.01) 1.1506 CHLA_NPQ = 0.044895, ZMaxFluo = 42.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04307, ZMaxFluo = 42.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99989 (+/- 6e-05) , vertically averaged dS =-0.0042796 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01971, ZMaxFluo = 8.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.017885, ZMaxFluo = 8.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99989 (+/- 6e-05) , vertically averaged dS =-0.0043531 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04599, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.044165, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.88587 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99989 (+/- 6e-05) , vertically averaged dS =-0.0044338 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04307, ZMaxFluo = 43, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.041245, ZMaxFluo = 43, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99988 (+/- 6e-05) , vertically averaged dS =-0.0045079 (+/- 0.01) 1.1506 CHLA_NPQ = 0.038325, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0365, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99988 (+/- 6e-05) , vertically averaged dS =-0.0045865 (+/- 0.01) 1.1506 CHLA_NPQ = 0.056575, ZMaxFluo = 52.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.05475, ZMaxFluo = 52.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99988 (+/- 6e-05) , vertically averaged dS =-0.0046641 (+/- 0.01) 1.1506 CHLA_NPQ = 0.104025, ZMaxFluo = 52.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.1022, ZMaxFluo = 52.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99988 (+/- 6e-05) , vertically averaged dS =-0.004735 (+/- 0.01) 1.1506 CHLA_NPQ = 0.055845, ZMaxFluo = 57.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.05402, ZMaxFluo = 57.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.89467 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99988 (+/- 6e-05) , vertically averaged dS =-0.0048164 (+/- 0.01) 1.1506 CHLA_NPQ = 0.07811, ZMaxFluo = 57.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.076285, ZMaxFluo = 57.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.89467 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99987 (+/- 6e-05) , vertically averaged dS =-0.0048912 (+/- 0.01) 1.1506 CHLA_NPQ = 0.074825, ZMaxFluo = 52.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.073, ZMaxFluo = 52.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99987 (+/- 6e-05) , vertically averaged dS =-0.0049652 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0803, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.078475, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.88587 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99987 (+/- 6e-05) , vertically averaged dS =-0.0050448 (+/- 0.01) 1.1506 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99987 (+/- 6e-05) , vertically averaged dS =-0.0051158 (+/- 0.01) 1.1506 CHLA_NPQ = 0.08687, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.085045, ZMaxFluo = 9.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99987 (+/- 6e-05) , vertically averaged dS =-0.005187 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05402, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.052195, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99986 (+/- 6e-05) , vertically averaged dS =-0.0052686 (+/- 0.01) 1.1506 CHLA_NPQ = 0.033215, ZMaxFluo = 22.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.03139, ZMaxFluo = 22.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99986 (+/- 6e-05) , vertically averaged dS =-0.0053472 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01314, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.011315, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.79486 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99986 (+/- 6e-05) , vertically averaged dS =-0.0054238 (+/- 0.01) 1.1506 CHLA_NPQ = 0.06205, ZMaxFluo = 42.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.060225, ZMaxFluo = 42.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.70067 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99986 (+/- 6e-05) , vertically averaged dS =-0.005501 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01752, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.015695, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.70067 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99986 (+/- 6e-05) , vertically averaged dS =-0.005574 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00292, ZMaxFluo = 5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.001095, ZMaxFluo = 5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.60076 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99985 (+/- 6e-05) , vertically averaged dS =-0.0056495 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03577, ZMaxFluo = 2.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.033945, ZMaxFluo = 2.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.60076 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99985 (+/- 6e-05) , vertically averaged dS =-0.0057277 (+/- 0.01) 1.1506 CHLA_NPQ = 0.008395, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.00657, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.60076 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99985 (+/- 6e-05) , vertically averaged dS =-0.0058118 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02409, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.022265, ZMaxFluo = 27.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.60076 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99985 (+/- 6e-05) , vertically averaged dS =-0.0058917 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0584, ZMaxFluo = 52.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.056575, ZMaxFluo = 52.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.70067 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99985 (+/- 6e-05) , vertically averaged dS =-0.0059684 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01387, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.012045, ZMaxFluo = 9.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99984 (+/- 6e-05) , vertically averaged dS =-0.0060494 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00292, ZMaxFluo = 7.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.001095, ZMaxFluo = 7.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99984 (+/- 6e-05) , vertically averaged dS =-0.0061294 (+/- 0.01) 1.1506 CHLA_NPQ = 0.014965, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01314, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99984 (+/- 6e-05) , vertically averaged dS =-0.0062114 (+/- 0.01) 1.1506 CHLA_NPQ = 0.027375, ZMaxFluo = 32.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.02555, ZMaxFluo = 32.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99984 (+/- 6e-05) , vertically averaged dS =-0.0062845 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05037, ZMaxFluo = 7.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.048545, ZMaxFluo = 7.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99984 (+/- 6e-05) , vertically averaged dS =-0.0063655 (+/- 0.01) 1.1506 CHLA_NPQ = 0.056575, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.05475, ZMaxFluo = 37.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99983 (+/- 6e-05) , vertically averaged dS =-0.0064369 (+/- 0.01) 1.1506 CHLA_NPQ = 0.012775, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01095, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99983 (+/- 6e-05) , vertically averaged dS =-0.0065181 (+/- 0.01) 1.1506 CHLA_NPQ = 0.012045, ZMaxFluo = 10, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01022, ZMaxFluo = 10, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99983 (+/- 6e-05) , vertically averaged dS =-0.0065949 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0584, ZMaxFluo = 52.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.056575, ZMaxFluo = 52.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99983 (+/- 6e-05) , vertically averaged dS =-0.0066707 (+/- 0.01) 1.1506 CHLA_NPQ = 0.073, ZMa xFluo = 22.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.071175, ZMaxFluo = 22.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99983 (+/- 6e-05) , vertically averaged dS =-0.0067605 (+/- 0.01) 1.1506 CHLA_NPQ = 0.103295, ZMaxFluo = 92.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.10147, ZMaxFluo = 92.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99982 (+/- 6e-05) , vertically averaged dS =-0.0068163 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01679, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.014965, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99982 (+/- 6e-05) , vertically averaged dS =-0.0068664 (+/- 0.01) 1.1506 CHLA_NPQ = 0.055845, ZMaxFluo = 62.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.05402, ZMaxFluo = 62.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99982 (+/- 6e-05) , vertically averaged dS =-0.0069631 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01241, ZMaxFluo = 22.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.010585, ZMaxFluo = 22.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99982 (+/- 6e-05) , vertically averaged dS =-0.0070276 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02044, ZMaxFluo = 12.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.018615, ZMaxFluo = 12.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.70067 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99982 (+/- 7e-05) , vertically averaged dS =-0.0071055 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03942, ZMaxFluo = 37.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.037595, ZMaxFluo = 37.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.70067 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99981 (+/- 7e-05) , vertically averaged dS =-0.0071932 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00949, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.007665, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.55431 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99981 (+/- 7e-05) , vertically averaged dS =-0.0072749 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04307, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.041245, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99981 (+/- 7e-05) , vertically averaged dS =-0.0073518 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02555, ZMaxFluo = 27.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.023725, ZMaxFluo = 27.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99981 (+/- 7e-05) , vertically averaged dS =-0.0074339 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02482, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.022995, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99981 (+/- 7e-05) , vertically averaged dS =-0.0075035 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01971, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.017885, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.66474 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9998 (+/- 7e-05) , vertically averaged dS =-0.0075921 (+/- 0.01) 1.1506 CHLA_NPQ = 0.12191, ZMaxFluo = 62.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.120085, ZMaxFluo = 62.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9998 (+/- 7e-05) , vertically averaged dS =-0.0076641 (+/- 0.01) 1.1506 CHLA_NPQ = 0.21097, ZMaxFluo = 52.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.209145, ZMaxFluo = 52.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.81489 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9998 (+/- 7e-05) , vertically averaged dS =-0.0077362 (+/- 0.01) 1.1506 CHLA_NPQ = 0.052925, ZMaxFluo = 17.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0511, ZMaxFluo = 17.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.90561 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9998 (+/- 7e-05) , vertically averaged dS =-0.0078128 (+/- 0.01) 1.1506 CHLA_NPQ = 0.052925, ZMaxFluo = 27.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0511, ZMaxFluo = 27.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9998 (+/- 7e-05) , vertically averaged dS =-0.0078863 (+/- 0.01) 1.1506 CHLA_NPQ = 0.08468, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.082855, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99979 (+/- 7e-05) , vertically averaged dS =-0.007981 (+/- 0.01) 1.1506 CHLA_NPQ = 0.22265, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.220825, ZMaxFluo = 27.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99979 (+/- 7e-05) , vertically averaged dS =-0.0080637 (+/- 0.01) 1.1506 CHLA_NPQ = 0.041975, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04015, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99979 (+/- 7e-05) , vertically averaged dS =-0.0081385 (+/- 0.01) 1.1506 CHLA_NPQ = 0.20367, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.201845, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99979 (+/- 7e-05) , vertically averaged dS =-0.0082202 (+/- 0.01) 1.1506 CHLA_NPQ = 0.3066, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.304775, ZMaxFluo = 32.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99979 (+/- 7e-05) , vertically averaged dS =-0.0083035 (+/- 0.01) 1.1506 CHLA_NPQ = 0.125925, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.1241, ZMaxFluo = 42.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.00546 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99979 (+/- 7e-05) , vertically averaged dS =-0.0083722 (+/- 0.01) 1.1506 CHLA_NPQ = 0.07373, ZMaxFluo = 22.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.071905, ZMaxFluo = 22.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99978 (+/- 8e-05) , vertically averaged dS =-0.0084502 (+/- 0.01) 1.1506 CHLA_NPQ = 0.45552, ZMaxFluo = 32, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.453695, ZMaxFluo = 32, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.98087 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99978 (+/- 8e-05) , vertically averaged dS =-0.0085392 (+/- 0.01) 1.1506 CHLA_NPQ = 0.1095, ZMaxFluo = 62.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.107675, ZMaxFluo = 62.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08814 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99978 (+/- 8e-05) , vertically averaged dS =-0.0086132 (+/- 0.01) 1.1506 CHLA_NPQ = 0.177025, ZMaxFluo = 82.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.1752, ZMaxFluo = 82.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08094 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99978 (+/- 8e-05) , vertically averaged dS =-0.0086858 (+/- 0.01) 1.1506 CHLA_NPQ = 0.275575, ZMaxFluo = 57.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.27375, ZMaxFluo = 57.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08094 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99978 (+/- 8e-05) , vertically averaged dS =-0.0087623 (+/- 0.01) 1.1506 CHLA_NPQ = 0.016425, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.0146, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08814 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99977 (+/- 8e-05) , vertically averaged dS =-0.0088392 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02701, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.025185, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08094 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99977 (+/- 8e-05) , vertically averaged dS =-0.0089133 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01314, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.011315, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.08094 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99977 (+/- 8e-05) , vertically averaged dS =-0.0089912 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02336, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.021535, ZMaxFluo = 27.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.0469 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99977 (+/- 8e-05) , vertically averaged dS =-0.0090681 (+/- 0.01) 1.1506 CHLA_NPQ = 0.093075, ZMaxFluo = 37.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.09125, ZMaxFluo = 37.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.0469 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99977 (+/- 8e-05) , vertically averaged dS =-0.009146 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01387, ZMaxFluo = 9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.012045, ZMaxFluo = 9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.0469 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99976 (+/- 8e-05) , vertically averaged dS =-0.0092335 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01752, ZMaxFluo = 10, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.015695, ZMaxFluo = 10, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05922 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99976 (+/- 8e-05) , vertically averaged dS =-0.0093029 (+/- 0.01) 1.1506 CHLA_NPQ = 0.012775, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01095, ZMaxFluo = 17.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05922 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99976 (+/- 8e-05) , vertically averaged dS =-0.0093869 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04453, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.042705, ZMaxFluo = 37.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99976 (+/- 9e-05) , vertically averaged dS =-0.0094662 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04307, ZMaxFluo = 23, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.041245, ZMaxFluo = 23, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99976 (+/- 9e-05) , vertically averaged dS =-0.0095365 (+/- 0.01) 1.1506 CHLA_NPQ = 0.093075, ZMaxFluo = 37.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.09125, ZMaxFluo = 37.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99975 (+/- 9e-05) , vertically averaged dS =-0.009616 (+/- 0.01) 1.1506 CHLA_NPQ = 0.07446, ZMaxFluo = 37.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.072635, ZMaxFluo = 37.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.01938 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99975 (+/- 9e-05) , vertically averaged dS =-0.0096952 (+/- 0.01) 1.1506 CHLA_NPQ = 0.07665, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.074825, ZMaxFluo = 32.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05417 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99975 (+/- 9e-05) , vertically averaged dS =-0.0097656 (+/- 0.01) 1.1506 CHLA_NPQ = 0.08906, ZMaxFluo = 52.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.087235, ZMaxFluo = 52.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05417 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99975 (+/- 9e-05) , vertically averaged dS =-0.0098527 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0949, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.093075, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05417 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99975 (+/- 9e-05) , vertically averaged dS =-0.0099301 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04088, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.039055, ZMaxFluo = 37.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05417 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99974 (+/- 9e-05) , vertically averaged dS =-0.01 (+/- 0.01) 1.1506 CHLA_NPQ = 0.078475, ZMaxFluo = 47.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.07665, ZMaxFluo = 47.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05417 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99974 (+/- 9e-05) , vertically averaged dS =-0.010071 (+/- 0.01) 1.1506 CHLA_NPQ = 0.08395, ZMaxFluo = 42.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.082125, ZMaxFluo = 42.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.01938 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99974 (+/- 9e-05) , vertically averaged dS =-0.010146 (+/- 0.01) 1.1506 CHLA_NPQ = 0.012045, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.01022, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99974 (+/- 9e-05) , vertically averaged dS =-0.010227 (+/- 0.01) 1.1506 CHLA_NPQ = 0.15987, ZMaxFluo = 52.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.158045, ZMaxFluo = 52.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99974 (+/- 0.0001) , vertically averaged dS =-0.010312 (+/- 0.01) 1.1506 CHLA_NPQ = 0.07738, ZMaxFluo = 22.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.075555, ZMaxFluo = 22.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99973 (+/- 0.0001) , vertically averaged dS =-0.010392 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04453, ZMaxFluo = 32.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.042705, ZMaxFluo = 32.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99973 (+/- 0.0001) , vertically averaged dS =-0.010472 (+/- 0.01) 1.1506 CHLA_NPQ = 0.12775, ZMaxFluo = 42.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.125925, ZMaxFluo = 42.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99973 (+/- 0.0001) , vertically averaged dS =-0.010541 (+/- 0.01) 1.1506 CHLA_NPQ = 0.12702, ZMaxFluo = 37.1, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.125195, ZMaxFluo = 37.1, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.03081 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99973 (+/- 0.0001) , vertically averaged dS =-0.010624 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02409, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.022265, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99973 (+/- 0.0001) , vertically averaged dS =-0.010706 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01095, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.009125, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99972 (+/- 0.0001) , vertically averaged dS =-0.010794 (+/- 0.01) 1.1506 CHLA_NPQ = 0.02628, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.024455, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99972 (+/- 0.0001) , vertically averaged dS =-0.010876 (+/- 0.01) 1.1506 CHLA_NPQ = 0.044165, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04234, ZMaxFluo = 22.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99972 (+/- 0. 0001) , vertically averaged dS =-0.010956 (+/- 0.01) 1.1506 CHLA_NPQ = 0.41245, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.410625, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05417 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99972 (+/- 0.0001) , vertically averaged dS =-0.011034 (+/- 0.01) 1.1506 CHLA_NPQ = 0.249295, ZMaxFluo = 62.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.24747, ZMaxFluo = 62.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99972 (+/- 0.0001) , vertically averaged dS =-0.011106 (+/- 0.01) 1.1506 CHLA_NPQ = 0.036865, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.03504, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99971 (+/- 0.0001) , vertically averaged dS =-0.011178 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0511, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.049275, ZMaxFluo = 17.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99971 (+/- 0.0001) , vertically averaged dS =-0.011263 (+/- 0.01) 1.1506 CHLA_NPQ = 0.15695, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.155125, ZMaxFluo = 17.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99971 (+/- 0.0001) , vertically averaged dS =-0.011325 (+/- 0.01) 1.1506 CHLA_NPQ = 0.11607, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.114245, ZMaxFluo = 22.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99971 (+/- 0.0001) , vertically averaged dS =-0.011387 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05402, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.052195, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99971 (+/- 0.0001) , vertically averaged dS =-0.011456 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01752, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.015695, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9997 (+/- 0.0001) , vertically averaged dS =-0.011551 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01314, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.011315, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9997 (+/- 0.0001) , vertically averaged dS =-0.011608 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0219, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.020075, ZMaxFluo = 12.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9997 (+/- 0.0001) , vertically averaged dS =-0.011693 (+/- 0.01) 1.1506 CHLA_NPQ = 0.00657, ZMaxFluo = 8.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.004745, ZMaxFluo = 8.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9997 (+/- 0.0001) , vertically averaged dS =-0.011777 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0292, ZMaxFluo = 22.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.027375, ZMaxFluo = 22.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.9997 (+/- 0.0001) , vertically averaged dS =-0.011842 (+/- 0.01) 1.1506 CHLA_NPQ = 0.11972, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.117895, ZMaxFluo = 17.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99969 (+/- 0.0001) , vertically averaged dS =-0.011913 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01752, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.015695, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99147 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99969 (+/- 0.0001) , vertically averaged dS =-0.011994 (+/- 0.01) 1.1506 CHLA_NPQ = 0.033215, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.03139, ZMaxFluo = 32.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99147 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99969 (+/- 0.0001) , vertically averaged dS =-0.012057 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03285, ZMaxFluo = 18, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.031025, ZMaxFluo = 18, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.10522 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99969 (+/- 0.0001) , vertically averaged dS =-0.012131 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01752, ZMaxFluo = 28, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.015695, ZMaxFluo = 28, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99802 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99969 (+/- 0.0001) , vertically averaged dS =-0.01222 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04453, ZMaxFluo = 57.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.042705, ZMaxFluo = 57.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99802 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99968 (+/- 0.0001) , vertically averaged dS =-0.012294 (+/- 0.01) 1.1506 CHLA_NPQ = 0.04745, ZMaxFluo = 52.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.045625, ZMaxFluo = 52.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99802 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99968 (+/- 0.0001) , vertically averaged dS =-0.012376 (+/- 0.01) 1.1506 CHLA_NPQ = 0.078475, ZMaxFluo = 52.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.07665, ZMaxFluo = 52.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.10522 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99968 (+/- 0.0001) , vertically averaged dS =-0.012459 (+/- 0.01) 1.1506 CHLA_NPQ = 0.03796, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.036135, ZMaxFluo = 42.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.10522 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99968 (+/- 0.0001) , vertically averaged dS =-0.012531 (+/- 0.01) 1.1506 CHLA_NPQ = 0.0511, ZMaxFluo = 42.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.049275, ZMaxFluo = 42.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.99147 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99968 (+/- 0.0001) , vertically averaged dS =-0.012617 (+/- 0.01) 1.1506 CHLA_NPQ = 0.01679, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.014965, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.94211 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99967 (+/- 0.0001) , vertically averaged dS =-0.012703 (+/- 0.01) 1.1506 CHLA_NPQ = 0.05037, ZMaxFluo = 32.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.048545, ZMaxFluo = 32.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99967 (+/- 0.0001) , vertically averaged dS =-0.012781 (+/- 0.010001) 1.1506 CHLA_NPQ = 0.03796, ZMaxFluo = 42.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.036135, ZMaxFluo = 42.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99967 (+/- 0.0001) , vertically averaged dS =-0.012867 (+/- 0.010018) 1.1506 CHLA_NPQ = 0.0511, ZMaxFluo = 47.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.049275, ZMaxFluo = 47.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99967 (+/- 0.0001) , vertically averaged dS =-0.012938 (+/- 0.010032) 1.1506 CHLA_NPQ = 0.02993, ZMaxFluo = 27.2, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.028105, ZMaxFluo = 27.2, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99967 (+/- 0.0001) , vertically averaged dS =-0.013026 (+/- 0.010082) 1.1506 CHLA_NPQ = 0.09855, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.096725, ZMaxFluo = 37.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.09423 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99966 (+/- 0.0001) , vertically averaged dS =-0.013088 (+/- 0.010138) 1.1506 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.05417 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99966 (+/- 0.0001) , vertically averaged dS =-0.013151 (+/- 0.010208) 1.1506 CHLA_NPQ = 0.030295, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.02847, ZMaxFluo = 22.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 2.01938 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99966 (+/- 0.0001) , vertically averaged dS =-0.013235 (+/- 0.010292) 1.1506 CHLA_NPQ = 0.044895, ZMaxFluo = 57.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04307, ZMaxFluo = 57.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99966 (+/- 0.0001) , vertically averaged dS =-0.013293 (+/- 0.010357) 1.1506 CHLA_NPQ = 0.04088, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.039055, ZMaxFluo = 27.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99966 (+/- 0.0001) , vertically averaged dS =-0.013367 (+/- 0.010435) 1.1506 CHLA_NPQ = 0.05475, ZMaxFluo = 42.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.052925, ZMaxFluo = 42.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99965 (+/- 0.0001) , vertically averaged dS =-0.013439 (+/- 0.010513) 1.1506 CHLA_NPQ = 0.048545, ZMaxFluo = 42.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.04672, ZMaxFluo = 42.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99965 (+/- 0.0001) , vertically averaged dS =-0.013521 (+/- 0.010597) 1.1506 CHLA_NPQ = 0.111325, ZMaxFluo = 62.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.1095, ZMaxFluo = 62.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99965 (+/- 0.0001) , vertically averaged dS =-0.013596 (+/- 0.010675) 1.1506 CHLA_NPQ = 0.05329, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.051465, ZMaxFluo = 12.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99965 (+/- 0.0001) , vertically averaged dS =-0.013655 (+/- 0.010743) 1.1506 CHLA_NPQ = -0.00073, ZMaxFluo = 8.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = -0.002555, ZMaxFluo = 8.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99965 (+/- 0.0001) , vertically averaged dS =-0.013754 (+/- 0.010841) 1.1506 CHLA_NPQ = 0.0073, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.005475, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99964 (+/- 0.0001) , vertically averaged dS =-0.01388 (+/- 0.010962) 1.1506 CHLA_NPQ = 0.05475, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.052925, ZMaxFluo = 12.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.809 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99964 (+/- 0.0001) , vertically averaged dS =-0.013962 (+/- 0.011046) 1.1506 CHLA_NPQ = 0.30514, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.303315, ZMaxFluo = 12.4, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99964 (+/- 0.0001) , vertically averaged dS =-0.014035 (+/- 0.011125) 1.1506 CHLA_NPQ = 0.161695, ZMaxFluo = 52.5, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.15987, ZMaxFluo = 52.5, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99964 (+/- 0.0001) , vertically averaged dS =-0.014089 (+/- 0.011188) 1.1506 CHLA_NPQ = 0.00803001, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.00620501, ZMaxFluo = 12.3, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99964 (+/- 0.0001) , vertically averaged dS =-0.014158 (+/- 0.011263) 1.1506 CHLA_NPQ = 0.01168, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.009855, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.97069 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99963 (+/- 0.0001) , vertically averaged dS =-0.014236 (+/- 0.011346) 1.1506 CHLA_NPQ = 0.04161, ZMaxFluo = 17.8, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.039785, ZMaxFluo = 17.8, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.82112 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99963 (+/- 0.0001) , vertically averaged dS =-0.014296 (+/- 0.011414) 1.1506 CHLA_NPQ = 0.00657, ZMaxFluo = 0.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.004745, ZMaxFluo = 0.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.809 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99963 (+/- 0.0001) , vertically averaged dS =-0.014374 (+/- 0.011497) 1.1506 CHLA_NPQ = 0.01825, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.016425, ZMaxFluo = 12.6, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.809 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99963 (+/- 0.0001) , vertically averaged dS =-0.014463 (+/- 0.011589) 1.1506 CHLA_NPQ = 0.04964, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.047815, ZMaxFluo = 17.7, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.809 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 none none r= 0.99963 (+/- 0.0001) , vertically averaged dS =-0.014541 (+/- 0.011672) 1.1506 CHLA_NPQ = 0.05256, ZMaxFluo = 22.9, PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 PRELIM_DARK_CHLA = [52,52.2,52.4,52.7,52.2], SCALE_CHLA = 0.0073 CHLA_NPQ = 0.050735, ZMaxFluo = 22.9, PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073, PHYSIO_RATIO = 1.809 PRELIM_DARK_CHLA = [52,52.7,52.8,52.7,52.8], SCALE_CHLA = 0.0073 No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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_FLUORES CENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) No adjustement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity dr ift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP700_ADJ USTED 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 adjus tement was necessary -Calibration error is manufacturer specified accuracy No adjustement was necessary -Calibration error is manufacturer specified accuracy Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA re al time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Sali nity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) BBP 700_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 Salinity drift or offset detected - OW fit is adopted. Error = maximum [statistical uncertainty, 0.01]. OW Method, 1.1, -CTD2018V01 & ARGO2018V01 - Polynomial calibration coeficients were used. G determined by surface measurement comparison to World Ocean Atlas 2009.See Takeshita et al.2013,doi:10.1002/jgrc.20399 CHLA real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03, and following recommendations of Roesler et al., 2017 (https://doi.org/10.1002/lom3.10185)) CHLA_FLUORESCENCE real time adjustment (specified in http://dx.doi.org/10.13155/35385 and computed with MLD_LIMIT = 0.03) 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) 20250523070413202505230704132025052307041320220922115847202307311612542023073116125420230731161254 2026062509093220260625090932 20250523070413202505230704132025052307041320220922115912202307311612542023073116125420230731161254 2026062509093220260625090932 20250523070413202505230704132025052307041320220922115913202307311612542023073116125420230731161254 2026062509093320260625090933 20250523070414202505230704142025052307041420220922115916202307311612552023073116125520230731161255 2026062509093320260625090933 20250523070415202505230704152025052307041520220922115943202307311612552023073116125520230731161255 2026062509093320260625090933 20250523070415202505230704152025052307041520220922115945202307311612552023073116125520230731161255 2026062509093420260625090934 20250523070415202505230704152025052307041520220922115945202307311612562023073116125620230731161256 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