Survey
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
Journal of Geophysical Research: Oceans Supporting Information for Using Lagrangian-based process studies to test satellite algorithms of vertical carbon flux in the eastern North Pacific Ocean M. R. Stukel1,*, M. Kahru2, C. R. Benitez-Nelson3, M. Décima4, R. Goericke2, M. R. Landry2, M. D. Ohman2 1 Dept. of Earth, Ocean, and Atmospheric Science, Florida State University, Tallahassee, FL 32306 2 Scripps Institution of Oceanography, University of California at San Diego, La Jolla, CA 92093 3 Marine Science Program and Dept. of Earth & Ocean Sciences, University of South Carolina, Columbia, SC 29208 4 National Institute of Water and Atmospheric Research, Wellington, New Zealand *Corresponding Author: [email protected] Contents of this file Legend for online supplemental table Additional Supporting Information (Files uploaded separately) Supplemental Table Supplemental Table S1 - In situ rate measurements made during Lagrangian cycles. Columns are: 1) Cruise and cycle identifiers. 2) Depth at which export measurements (234Th and/or sediment traps) were made. 3-4) Start and end dates of cycles. 5-8) Location of cycles. 9) Depth of the euphotic zone (1% light level). 10) 14CPP. 12) Fraction of microphytoplankton (>20-m) as determined from vertical integration of carbon-based epifluorescence microscopy data. 14) Fraction of microphytoplankton (>20-m) as determined by size-fractionated Chl a measurements made in the mixed 1 layer. 16) Water-column integrated phytoplankton specific growth rate as determined from microzooplankton grazing dilution experiments. 18) Water-column integrated protozoan grazing rates as determined from microzooplankton grazing dilution experiments. 20) Euphotic zone mesozooplankton grazing rates as determined from gut pigment measurements made from paired day-night oblique bongo tows. 22) Vertical carbon-flux measurements determined using the 238U-234Th disequilibrium method. 24) Vertical carbon-flux measurements determined using VERTEX-style drifting sediment traps. 26) Specific rate of change of vertically integrated in situ Chl a at the drifter location. 28) Vertically integrated phytoplankton biomass determined by epifluorescence microscopy (for all cycles on CCE-P0605, CCE-P0704, and CCE-P0810 and CRD Cycles 2-4) or by multiplication of vertically integrated Chl a by a region-specific C:Chl a ratio determined from our dataset (43 for CCE and 119 for CRD, g:g). For all measurements, standard error (SE) of replicate measurements made during the Lagrangian experiments are reported. 2