Contributors | Affiliation | Role |
---|---|---|
Bollens, Steve M. | Washington State University | Principal Investigator |
Bucklin, Ann | University of New Hampshire (UNH/OPAL) | Principal Investigator |
Durbin, Edward | University of Rhode Island (URI-GSO) | Principal Investigator |
Garrahan, Peter | University of Rhode Island (URI-GSO) | Principal Investigator |
Gibson, James | University of Rhode Island (URI-GSO) | Principal Investigator |
Gifford, Dian J. | University of Rhode Island (URI-GSO) | Principal Investigator |
Green, John | National Marine Fisheries Service (NMFS) | Principal Investigator |
Greene, Charles H | Cornell University (Cornell) | Principal Investigator |
Irish, Jim | Woods Hole Oceanographic Institution (WHOI) | Principal Investigator |
Lough, Greg | National Marine Fisheries Service (NMFS) | Principal Investigator |
Manning, James P. | Northeast Fisheries Science Center - Woods Hole (NOAA NEFSC) | Principal Investigator |
Miller, Charles B. | Oregon State University (OSU) | Principal Investigator |
Mountain, David | National Marine Fisheries Service (NMFS) | Principal Investigator |
Sibunka, John | National Oceanic and Atmospheric Administration (NOAA) | Principal Investigator |
Taylor, Maureen | National Marine Fisheries Service (NMFS) | Principal Investigator |
Wiebe, Peter H. | Woods Hole Oceanographic Institution (WHOI) | Principal Investigator |
Allison, Dicky | Woods Hole Oceanographic Institution (WHOI) | BCO-DMO Data Manager |
The MOCNESS is based on the Tucker Trawl principle (Tucker, 1951). The particular MOCNESS system from which these CTD data came is one of three net systems. The MOCNESS-1 has nine rectangular nets (1m x 1.4 m) which are opened and closed sequentially by commands through conducting cable from the surface (Wiebe et al., 1976). In all three systems, the underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds. Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used. Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg. Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. (Wiebe et al., 1985) In addition, data were collected from four other sensors attached to the frame: the Transmissometer, the Fluorometer, the Downwelling light sensor, and the Oxygen sensor. A SeaBird underwater pump was also included in the sensor suite.
It should be noted that whenever the data are of questionable value, 50.000 is written in the particular data field.
Unless otherwise indicated, these data have not been post-processed.
For additional information, contact the chief scientist for the cruise or the U.S. GLOBEC Data Management Office (DMO).
Note: Some variables have been eliminated from the display but are nevertheless available. These variables include: oxycurrent, oxytemp, tempco, and echo.
Fofonoff and Millard, 1983, UNESCO technical papers in Marine Sciences, #44 Tucker, G.H., 1951. Relation of fishes and other organisms to the scattering of underwater sound. Journal of Marine Research, 10: 215-238. Wiebe, P.H., K.H. Burt, S. H. Boyd, A.W. Morton, 1976. The multiple opening/closing net and environmental sensing system for sampling zooplankton. Journal of
Marine Research, 34(3): 313-326 Wiebe, P.H., A.W. Morton, A.M. Bradley, R.H. Backus, J.E. Craddock, V. Barber, T.J. Cowles and G.R. Flierl, 1985. New developments in the MOCNESS, an apparatus for sampling zooplankton and micronekton. Marine Biology, 87: 313-323.
updated October 27 2005, gfh
The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer.
File |
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ctd_mocness.csv (Comma Separated Values (.csv), 154.87 MB) MD5:482efc96350533cd3516516cca826860 Primary data file for dataset ID 2511 |
ctd_mocness_AL9306.csv (Comma Separated Values (.csv), 4.29 MB) MD5:69d1a0b653b8db0562cfc5e29f978400 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9403II.csv (Comma Separated Values (.csv), 4.74 MB) MD5:794643b7a9bf4b00c90ebd3152284ca6 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9404.csv (Comma Separated Values (.csv), 4.41 MB) MD5:b1417ebbb230f3b02d3a959e1bcf4b76 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9505.csv (Comma Separated Values (.csv), 4.61 MB) MD5:72dcfabf34d6c7f12f358b05969b4fa1 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9506.csv (Comma Separated Values (.csv), 4.33 MB) MD5:716247da1340fe57fb20d9d9341f5d70 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9508.csv (Comma Separated Values (.csv), 4.96 MB) MD5:d949fdba92d85898b632fba889b17035 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9513.csv (Comma Separated Values (.csv), 777.22 KB) MD5:6a767dcad420bb811464aca44e0538cc Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9605.csv (Comma Separated Values (.csv), 4.11 MB) MD5:81e8d882c60cb9693ba1537a7cb9c06e Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9607.csv (Comma Separated Values (.csv), 5.88 MB) MD5:4aa8c7180f8e8112323088bd61e7951c Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9612.csv (Comma Separated Values (.csv), 1.44 MB) MD5:342eead7e1bf9f14764770ce5f00b0cd Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9701.csv (Comma Separated Values (.csv), 2.58 MB) MD5:9b4c13911d8d0386ddbbca93b8dd9c0a Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9707.csv (Comma Separated Values (.csv), 5.11 MB) MD5:84aad67bfc61c23c7b4d2c80a9fd20c3 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9801.csv (Comma Separated Values (.csv), 4.24 MB) MD5:ec2e56472ebec82750fdd312487372cb Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9806.csv (Comma Separated Values (.csv), 5.04 MB) MD5:41163f7f7bfb77240a40d23d31360090 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9808.csv (Comma Separated Values (.csv), 4.94 MB) MD5:41b97b10b9c038c3cefc22a10c6fe049 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9901.csv (Comma Separated Values (.csv), 4.56 MB) MD5:bcd20a1c9531205d1e59608458e7b836 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9904.csv (Comma Separated Values (.csv), 4.02 MB) MD5:66b978b787b74dec05ca0dda7ac7ad50 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_AL9906.csv (Comma Separated Values (.csv), 4.56 MB) MD5:484e2ccbc49789414ec7d10734faa92a Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN261.csv (Comma Separated Values (.csv), 2.55 MB) MD5:315ebabfc6a531dd31f792710424c22d Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN263.csv (Comma Separated Values (.csv), 3.06 MB) MD5:546253a43f58d5fda99d0707cf522978 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN265.csv (Comma Separated Values (.csv), 5.00 MB) MD5:f277e2982ff3be38ee207739538c3527 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN268.csv (Comma Separated Values (.csv), 1.15 MB) MD5:d370b55fca406875c6799d457c9f04f4 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN274.csv (Comma Separated Values (.csv), 430.68 KB) MD5:1495a8d9f5096515cf34acc3c7f73b12 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN276.csv (Comma Separated Values (.csv), 2.78 MB) MD5:d9a15724e312c54bb4e45c70d0582986 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN278.csv (Comma Separated Values (.csv), 4.21 MB) MD5:9a910a85b56a83cd6c3b04c83d7559bc Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN282.csv (Comma Separated Values (.csv), 3.37 MB) MD5:2d1c5d0ca27cfc240793da35b1a3ccec Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN296.csv (Comma Separated Values (.csv), 1.09 MB) MD5:09c16b67c5fe37607150d9dd43bee6aa Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN307.csv (Comma Separated Values (.csv), 3.50 MB) MD5:c4d395691888f9b09381542db1741540 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN319.csv (Comma Separated Values (.csv), 688.73 KB) MD5:a36fcdca75de04887e7571ac4230cfdd Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN320.csv (Comma Separated Values (.csv), 4.00 MB) MD5:50b914603a6baf0102cac56fe2cb3636 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN321.csv (Comma Separated Values (.csv), 2.39 MB) MD5:fd1e206df1eac6533feb4e4350c791bc Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN322.csv (Comma Separated Values (.csv), 268.33 KB) MD5:a046074e8ee3127f5efe58f85881501a Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN325.csv (Comma Separated Values (.csv), 1.49 MB) MD5:bb43a217ea0870b63216dec40eab851e Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN330.csv (Comma Separated Values (.csv), 1.05 MB) MD5:9172ddfca4cef00813dfe87ff267db9b Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_EN331.csv (Comma Separated Values (.csv), 1.73 MB) MD5:31d5716aadfad9d5138077723b7785fe Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC300.csv (Comma Separated Values (.csv), 4.19 MB) MD5:920b3245af415b9cb00338203cf8cee4 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC301.csv (Comma Separated Values (.csv), 2.80 MB) MD5:17c2f66eb48efa78f14d7b7cf021c22b Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC302.csv (Comma Separated Values (.csv), 3.76 MB) MD5:8d0f06d102918518d68d4c501deb4504 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC303.csv (Comma Separated Values (.csv), 4.57 MB) MD5:20dbf4a9543cee90b9b2172a15f8f0f9 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC319.csv (Comma Separated Values (.csv), 3.39 MB) MD5:cc27ee6b29a09d270cbe0785a9765e13 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC332.csv (Comma Separated Values (.csv), 1.31 MB) MD5:3121e0c54c03f91efeaf94abd4e21c2f Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC334.csv (Comma Separated Values (.csv), 1.81 MB) MD5:a3d5e1b651b0ec99ab86ad60bb2c9454 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC336.csv (Comma Separated Values (.csv), 4.73 MB) MD5:3a967ace6966b15302d903fe2d61073a Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_OC341.csv (Comma Separated Values (.csv), 4.11 MB) MD5:e3bbc1b57c87f22b2a3718ac04e91b13 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_SJ9503.csv (Comma Separated Values (.csv), 2.08 MB) MD5:03c5c7eac3f6a4ac1970fa1ece785d56 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_SJ9505.csv (Comma Separated Values (.csv), 3.29 MB) MD5:3aacf043eaae656b484bfabe31725ab6 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
ctd_mocness_SJ9507.csv (Comma Separated Values (.csv), 5.54 MB) MD5:e59c688c9f156c94c1f4ae30429d0265 Displayed by /data/rgroman/ctd_mocness/mocpro_level0.pl, v1.24/Jan. 28, 2000 Displayed by /data/rgroman/ctd_mocness/mocpro_level1.pl, V2.07/August 1, 2001 For MOC.25 data, with filetype=pro Displayed by /data/rgroman/ctd_mocness/mocpro_level2.pl, V2.16a/December 30, 2003 For /data2/gbdata/al9306/moc, MOC.25, pro, AL9306, 1993 Displayed by /data/rgroman/ctd_mocness/mocpro_level3.pl, V1.53/December 3, 2004 Using data file /data2/gbdata/al9306/moc/m4-1014.pro #Note: local times may be in error. 12/8/98 rcg |
Parameter | Description | Units |
cruiseid | cruise identification, e.g. NBP0202, for RVIB Palmer cruise 0202 | |
temp | temperature of water | degrees C |
datatype | sampling method - instrument type, e.g. MOCNESS-1 or MOCNESS-10 | |
year | year | |
brief_desc | brief cruise description, such as process or mooring | |
tow | tow number | |
day_local | day of month, GMT, 1-31 | |
month_local | month of year, GMT, 1 - 12 | |
station | station number, from event log | |
station_std | standard station number, from event log | |
yrday_local | year day as a decimal, based on Julian calendar, GMT | YYY.Y |
time_local | time, GMT using 24 hour clock to decimal minutes | HHmm.m |
press | depth of observation or sample | meters |
potemp | potential temperature or theta1 ¹Fofonoff and Millard, 1983, UNESCO technical papers in Marine Sciences, #44 | |
sal | salinity calculated from conductivity, bad values are set to 50 | |
sigma_0 | potential density1 ¹Fofonoff and Millard, 1983, UNESCO technical papers in Marine Sciences, #44 | |
flvolt | relative fluorescence (0-5 volts) | volts |
angle | angle of net frame relative to vertical (0-89 degrees) | degrees |
flow | consecutive flow counts | |
hzvel | horizontal net velocity | m/min |
vtvel | vertical net velocity | m/min |
vol_net | volume filtered | meters<sup>3</sup> |
trans_v | transmissometry or light transmission, (0-5 volts) | volts |
O2 | dissolved oxygen | ml/liter |
lite | downwelling light | volts |
net | MOCNESS net number, (00-08) | |
lat | latitude, negative = South | DD.D |
lon | longitude, negative = West | DDD.D |
Dataset-specific Instrument Name | CTD MOCNESS |
Generic Instrument Name | CTD MOCNESS |
Dataset-specific Description | The MOCNESS-1 has nine rectangular nets (1m x 1.4 m) which are opened and closed sequentially by commands through conducting cable from the surface (Wiebe et al., 1976). In all three systems, "the underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds. Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used. Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg. Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer." (Wiebe et al., 1985) In addition, data were collected from four other sensors attached to the frame: the Transmissometer, the Fluorometer, the Downwelling light sensor, and the Oxygen sensor. A SeaBird underwater pump was also included in the sensor suite. |
Generic Instrument Description | The CTD part of the MOCNESS includes 1) a pressure (depth) sensor which is a thermally isolated titanium strain gauge with a standard range of 0-5000 decibars full scale, 2) A Sea Bird temperature sensor whose frequency output is measured and sent to the surface for logging and conversion to temperature by the software in the MOCNESS computer (The system allows better than 1 milli-degree resolution at 10 Hz sampling rate), and 3) A Sea Bird conductivity sensor whose output frequency is measured and sent to the surface for logging and conversion to conductivity by the software in the computer (The system allows better than 1 micro mho/cm at 10 Hz sampling rate). The data rate depends on the speed of the computer and the quality of the cable. With a good cable, the system can operate at 2400 baud, sampling all variables at 2 times per second. One sample every 4 seconds is the default, although the hardware can operate much faster. (From The MOCNESS Manual) |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1993-05-18 |
End Date | 1993-05-29 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1994-05-17 |
End Date | 1994-05-28 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1994-05-31 |
End Date | 1994-06-10 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1995-05-09 |
End Date | 1995-05-18 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1995-06-05 |
End Date | 1995-06-15 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1995-07-10 |
End Date | 1995-07-20 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1995-10-30 |
End Date | 1995-11-08 |
Description | long term mooring deployment Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1996-05-06 |
End Date | 1996-05-17 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1996-06-03 |
End Date | 1996-06-13 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1996-11-04 |
End Date | 1996-11-08 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1997-01-13 |
End Date | 1997-01-20 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1997-06-18 |
End Date | 1997-06-28 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1998-01-07 |
End Date | 1998-01-19 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1998-05-13 |
End Date | 1998-05-22 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1998-06-16 |
End Date | 1998-06-26 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1999-01-12 |
End Date | 1999-01-24 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Start Date | 1999-05-19 |
End Date | 1999-05-27 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Albatross IV |
Report | |
Start Date | 1999-06-14 |
End Date | 1999-06-24 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1995-02-10 |
End Date | 1995-02-20 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1995-03-13 |
End Date | 1995-03-24 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1995-04-11 |
End Date | 1995-04-22 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1995-06-26 |
End Date | 1995-07-06 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1995-09-29 |
End Date | 1995-10-05 |
Description | long term mooring recovery Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1996-01-10 |
End Date | 1996-01-22 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1996-02-13 |
End Date | 1996-02-25 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1996-04-08 |
End Date | 1996-04-20 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1997-03-04 |
End Date | 1997-03-16 |
Description | process zooplankton vital rates Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. During this cruise, the latitude and longitude information from the satellite feed were not connected to the MOCNESS acquisition system. Consequently, position information information is not available for this data set. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1997-10-08 |
End Date | 1997-10-17 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1999-02-21 |
End Date | 1999-03-04 |
Description | process zooplankton vital rates Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1999-03-10 |
End Date | 1999-03-23 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1999-03-28 |
End Date | 1999-04-11 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1999-04-17 |
End Date | 1999-05-02 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Start Date | 1999-06-13 |
End Date | 1999-06-30 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1999-10-16 |
End Date | 1999-10-26 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Endeavor |
Report | |
Start Date | 1999-12-04 |
End Date | 1999-12-13 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1997-03-16 |
End Date | 1997-03-28 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1997-04-05 |
End Date | 1997-04-17 |
Description | process fish vital rates Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1997-04-22 |
End Date | 1997-05-02 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1997-05-06 |
End Date | 1997-05-23 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1998-03-15 |
End Date | 1998-03-27 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1998-10-19 |
End Date | 1998-10-30 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1998-12-03 |
End Date | 1998-12-13 |
Description | process Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1999-02-11 |
End Date | 1999-02-23 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Oceanus |
Report | |
Start Date | 1999-04-16 |
End Date | 1999-04-27 |
Description | broad-scale Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Seward Johnson |
Start Date | 1995-03-14 |
End Date | 1995-03-24 |
Description | process larvae Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Seward Johnson |
Report | |
Start Date | 1995-04-07 |
End Date | 1995-04-21 |
Description | Process cruise looking for cod and haddock larvae. Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
Website | |
Platform | R/V Seward Johnson |
Report | |
Start Date | 1995-05-08 |
End Date | 1995-05-26 |
Description | process larvae Methods & Sampling The underwater unit sends a data frame, comprised of temperature, depth, conductivity, net-frame angle, flow count, time, number of open net, and net opening/closing, to the deck unit in a compressed hexadecimal format every 2 seconds and from the deck unit to a microcomputer every 4 seconds... Temperature (to approximately 0.01 deg C) and conductivity are measured with SEABIRD sensors. Normally, a modified T.S.K.-flowmeter is used... Both the temperature and conductivity sensors and the flowmeter are mounted on top of the frame so that they face horizontally when the frame is at a towing angle of 45deg... Calculations of salinity (to approximately 0.01 o/oo S), potential temperature (theta), potential density (sigma), the oblique and vertical velocities of the net, and the approximate volume filtered by each net are made after each string of data has been received by the computer. |
The U.S. GLOBEC Georges Bank Program is a large multi- disciplinary multi-year oceanographic effort. The proximate goal is to understand the population dynamics of key species on the Bank - Cod, Haddock, and two species of zooplankton (Calanus finmarchicus and Pseudocalanus) - in terms of their coupling to the physical environment and in terms of their predators and prey. The ultimate goal is to be able to predict changes in the distribution and abundance of these species as a result of changes in their physical and biotic environment as well as to anticipate how their populations might respond to climate change.
The effort is substantial, requiring broad-scale surveys of the entire Bank, and process studies which focus both on the links between the target species and their physical environment, and the determination of fundamental aspects of these species' life history (birth rates, growth rates, death rates, etc).
Equally important are the modelling efforts that are ongoing which seek to provide realistic predictions of the flow field and which utilize the life history information to produce an integrated view of the dynamics of the populations.
The U.S. GLOBEC Georges Bank Executive Committee (EXCO) provides program leadership and effective communication with the funding agencies.
U.S. GLOBEC (GLOBal ocean ECosystems dynamics) is a research program organized by oceanographers and fisheries scientists to address the question of how global climate change may affect the abundance and production of animals in the sea.
The U.S. GLOBEC Program currently had major research efforts underway in the Georges Bank / Northwest Atlantic Region, and the Northeast Pacific (with components in the California Current and in the Coastal Gulf of Alaska). U.S. GLOBEC was a major contributor to International GLOBEC efforts in the Southern Ocean and Western Antarctic Peninsula (WAP).
Funding Source | Award |
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National Science Foundation (NSF) | |
National Oceanic and Atmospheric Administration (NOAA) |