Contributors | Affiliation | Role |
---|---|---|
Welling, Leigh | Oregon State University (OSU) | Principal Investigator |
Chandler, Cynthia L. | Woods Hole Oceanographic Institution (WHOI BCO-DMO) | BCO-DMO Data Manager |
Polycystine Radiolarian from 64 µm MOCNESS tows
See Platform deployments for cruise specific documentation
Parameter | Description | Units |
event | event number from event log | |
date | yyyymmdd | |
olat | originator's starting latitude (minus=South) | decimal degrees |
olon | originator's starting longitude (minus=West) | decimal degrees |
moc | MOCNESS tow number from event log | |
net | MOCNESS net number | |
top | shallowest depth of collection interval | meters |
botm | deepest depth of collection interval | meters |
flow | volume of water filtered | cubic meters |
count | number of radiolarian tests counted for analysis | |
total | total radiolarians | count/cubic meter |
s1 | Spongurus (?) sp. | count/cubic meter |
s1a | Spongurus cf. elliptica | count/cubic meter |
s3 | Actinomma arcadophorum/medianum | count/cubic meter |
s4 | category not used | |
s6 | Collosphaera huxleyi | count/cubic meter |
s7 | Actinomma leptodermum | count/cubic meter |
s8 | Prunopyle antarctica | count/cubic meter |
s9 | Amphirhopalum ypsilon | count/cubic meter |
s10 | Actinomma cf. hystrix | count/cubic meter |
s12 | Euchitonia elegans/furcata | count/cubic meter |
s13 | Acrosphaera spinosa | count/cubic meter |
s13a | Collosphaera tuberosa | count/cubic meter |
s14 | Heliodiscus asteriscus | count/cubic meter |
s17 | Hexacontium laevigatum/enthacanthum | count/cubic meter |
s18 | Hymeniastrum euclidis | count/cubic meter |
s19 | Larcospira quadrangula | count/cubic meter |
s23 | Ommatartus tetrathalamus tetrathalamus | count/cubic meter |
s24 | Lithelius minor | count/cubic meter |
s29 | Larcopyle butschlii | count/cubic meter |
s30 | Stylochlamydium asteriscus | count/cubic meter |
s34 | Acrosphaera murrayana | count/cubic meter |
s36 | Dictyocoryne truncatum | count/cubic meter |
s36a | Dictyocoryne profunda | count/cubic meter |
s36c | Euchitonia triangulum | count/cubic meter |
s37 | Siphonosphaera polysiphonia | count/cubic meter |
s39 | Disolenia quadrata/zanguebarica | count/cubic meter |
s40 | Spongaster tetras | count/cubic meter |
s41 | Sponguru pylomaticu | count/cubic meter |
s42 | Spongocore puella | count/cubic meter |
s43 | Spongopyle osculosa | count/cubic meter |
s44 | Spongotrochus glacialis group | count/cubic meter |
s47 | Stylodictya aculeata/validispina | count/cubic meter |
s48 | Porodiscus sp. B | count/cubic meter |
s50 | Axoprunum stauraxonium | count/cubic meter |
s51 | Stylatractus spp | count/cubic meter |
s53 | Hexapyle spp. | count/cubic meter |
s54 | Octopyle stenozona | count/cubic meter |
s54a | Tetrapyle octacantha | count/cubic meter |
s54b | Phorticium pylonium | count/cubic meter |
gs1 | Druppatractus pyriformis/irregularis | count/cubic meter |
n1 | Liriospyris reticulata | count/cubic meter |
n1c | Zygocircus sp. | count/cubic meter |
n2 | Anthocyrtidiuim ophirense | count/cubic meter |
n3 | Anthocyrtidium zanguebaricum | count/cubic meter |
n4 | Carpocanistrum spp. | count/cubic meter |
n5 | Lamprocyrtis nigriniae | count/cubic meter |
n6 | Pterocanium grandiporus | count/cubic meter |
n7 | Pterocorys minithorax | count/cubic meter |
n8 | Carpocanarium papillosum group | count/cubic meter |
n9 | Giraffospyris angulata | count/cubic meter |
n10 | Eucyrtidium acuminatum | count/cubic meter |
n11 | Eucyrtidium hexagonatum | count/cubic meter |
n14 | Phormopyris stabilis scaphipes | count/cubic meter |
n15 | Lamprocyrtis hannai | count/cubic meter |
n16 | Lamprocyclas maritalis group | count/cubic meter |
n18 | Botryostrobus auritus/australis | count/cubic meter |
n18a | category not used | |
n19 | Botryocyrtis scutum | count/cubic meter |
n20 | Rhodospyris sp. | count/cubic meter |
n23 | Peripyramis circumtexta & Plectopyramis dodecomma count/cubic meter | |
n24 | Pterocaniium sp. | count/cubic meter |
n25 | Pterocanium praetextum group | count/cubic meter |
n26 | Pterocanium korotnevi | count/cubic meter |
n28 | Pterocanium trilobum | count/cubic meter |
n29 | Dictyophimus crisiae/hirundo group | count/cubic meter |
n32 | Phormostrichoartus corbula | count/cubic meter |
n33 | Botryostrobus aquilonaris | count/cubic meter |
n34 | Stichopilium bicorne | count/cubic meter |
n35 | Cycladophora davisiana davisiana | count/cubic meter |
n35a | Cycladophora davisiana cornutoides | count/cubic meter |
n36 | Theocalyptra bicornis | count/cubic meter |
n38 | Theocalyptra bicornis var. | count/cubic meter |
n39 | Pterocorys hertwigii | count/cubic meter |
n40 | Pterocorys clausus | count/cubic meter |
n41 | Pterocorys sabae | count/cubic meter |
n42 | Theocorythium trachelium group | count/cubic meter |
n44 | Dictyophimus clevei | count/cubic meter |
n43 | Dendrospyris borealis | count/cubic meter |
n45 | Helotholus histricosa | count/cubic meter |
n45a | Lampromitra quadricuspis | count/cubic meter |
n46 | Antarctissa strelkovi/denticulata | count/cubic meter |
gn1 | Dictyophimus infabricatus | count/cubic meter |
gn2 | Dictyophimus gracilipes | count/cubic meter |
gn2a | Dictyophimus platycephalus | count/cubic meter |
gn3 | Lithomelissa hystrix | count/cubic meter |
gn3a | Lithomelissa laticeps | count/cubic meter |
gn4 | Lithomelissa thoracites | count/cubic meter |
gn5 | Lithomelissa cf. galeata | count/cubic meter |
gn8 | Lophospyris pentagona pentagona | count/cubic meter |
gn9 | Litharachnium tentorium | count/cubic meter |
gn10 | Acanthocorys variabilis | count/cubic meter |
gn11 | Arachnocorys umbellifera | count/cubic meter |
gn11a | Dictyophimus cf. tripus | count/cubic meter |
gn12 | Lophophaena cf. capito | count/cubic meter |
gn13 | Cornutella profunda | count/cubic meter |
gn14 | Desmospyris anthocyrtoides/stabilis | count/cubic meter |
gn15 | Lophocoorys polycantha | count/cubic meter |
gn16 | Eucecryphalus sp. | count/cubic meter |
gn17 | Coracalyptra cervus | count/cubic meter |
gn18 | Peridium sp. & P. longispinum | count/cubic meter |
gn19 | Lithostrobus cf. hexagonalis | count/cubic meter |
gn20 | Theopilium tricostatum | count/cubic meter |
gn21 | Lampromitra cf. coronata | count/cubic meter |
gn23 | Cladoscenium cf. tricolpum | count/cubic meter |
gn22 | Plectacantha sp. & P. oikiskos | count/cubic meter |
gn27 | Dictyoceras acanthicum | count/cubic meter |
gn28 | Dictyophimus bicornis/columba | count/cubic meter |
gn29 | Amphisplecta cf. acrostoma | count/cubic meter |
l1 | Lithomelissa setosa | count/cubic meter |
l2 | Lithomelissa borealis | count/cubic meter |
cm | Callimitra emmae | count/cubic meter |
lat_n | originator's starting latitude (minus=South) | decimal degrees |
lon_n | originator's starting longitude (minus=West) | decimal degrees |
tow | MOCNESS tow number from event log |
Dataset-specific Instrument Name | MOCNESS |
Generic Instrument Name | MOCNESS |
Generic Instrument Description | The Multiple Opening/Closing Net and Environmental Sensing System or MOCNESS is a family of net systems based on the Tucker Trawl principle. There are currently 8 different sizes of MOCNESS in existence which are designed for capture of different size ranges of zooplankton and micro-nekton Each system is designated according to the size of the net mouth opening and in two cases, the number of nets it carries. The original MOCNESS (Wiebe et al, 1976) was a redesigned and improved version of a system described by Frost and McCrone (1974).(from MOCNESS manual) This designation is used when the specific type of MOCNESS (number and size of nets) was not specified by the contributing investigator. |
Website | |
Platform | R/V Thomas G. Thompson |
Start Date | 1992-01-30 |
End Date | 1992-03-13 |
Description | Purpose: Spring Survey Cruise; 12°N-12°S at 140°W
TT007 was one of five cruises conducted in 1992 in support of the U.S. Equatorial Pacific (EqPac) Process Study. The five EqPac cruises aboard R/V Thomas G. Thompson included two repeat meridional sections (12°N - 12°S), 2 equatorial surveys, and a benthic survey (all at 140° W). The scientific objectives of this study were to observe the processes in the Equatorial Pacific controlling the fluxes of carbon and related elements between the atmosphere, euphotic zone, and deep ocean. As luck would have it, the survey window coincided with an El Nino event. A bonus for the research team. Methods & Sampling PI: Leigh Welling of: Oregon State University dataset: Counts of polycystine radiolarian from 64 um MOCNESS tows dates: February 07, 1992 to March 08, 1992 location: N: 9.0412 S: -12.0767 W: -140.2108 E: -135.0373 project/cruise: EqPac/TT007 - Spring Survey ship: Thomas Thompson Polycystine Radiolarian Data collected with 64 micron MOCNESS All tows to 200 meters depth were collected during the day except moc6 and moc10 which were collected at night. All tows to 1000 meters were collected at night. nd = no data |
Website | |
Platform | R/V Thomas G. Thompson |
Start Date | 1992-08-05 |
End Date | 1992-09-18 |
Description | Purpose: Fall Survey; 12°N-12°S at 140°W
TT011 was one of five cruises conducted in 1992 in support of the U.S. Equatorial Pacific (EqPac) Process Study. The five EqPac cruises aboard R/V Thomas G. Thompson included two repeat meridional sections (12°N - 12°S), 2 equatorial surveys, and a benthic survey (all at 140° W). The scientific objectives of this study were to observe the processes in the Equatorial Pacific controlling the fluxes of carbon and related elements between the atmosphere, euphotic zone, and deep ocean. As luck would have it, the survey window coincided with an El Nino event. A bonus for the research team. Methods & Sampling PI: Leigh Welling of: Oregon State University dataset: Counts of polycystine radiolarian from 64 um MOCNESS tows dates: August 11, 1992 to September 09, 1992 location: N: 12.0233 S: -5.245 W: -141.49 E: -139.8167 project/cruise: EqPac/TT011 - Fall Survey ship: Thomas Thompson Polycystine Radiolarian Data collected with 64 micron MOCNESS All tows were collected during the day |
The U.S. EqPac process study consisted of repeat meridional sections (12°N -12°S) across the equator in the central and eastern equatorial Pacific from 95°W to 170°W during 1992. The major scientific program was focused at 140° W consisting of two meridional surveys, two equatorial surveys, and a benthic survey aboard the R/V Thomas Thompson. Long-term deployments of current meter and sediment trap arrays augmented the survey cruises. NOAA conducted boreal spring and fall sections east and west of 140°W from the R/V Baldridge and R/V Discoverer. Meteorological and sea surface observations were obtained from NOAA's in place TOGA-TAO buoy network.
The scientific objectives of this study were to determine the fluxes of carbon and related elements, and the processes controlling these fluxes between the Equatorial Pacific euphotic zone and the atmosphere and deep ocean. A broad overview of the program at the 140°W site is given by Murray et al. (Oceanography, 5: 134-142, 1992). A full description of the Equatorial Pacific Process Study, including the international context and the scientific results, appears in a series of Deep-Sea Research Part II special volumes:
Topical Studies in Oceanography, A U.S. JGOFS Process Study in the Equatorial Pacific (1995), Deep-Sea Research Part II, Volume 42, No. 2/3.
Topical Studies in Oceanography, A U.S. JGOFS Process Study in the Equatorial Pacific. Part 2 (1996), Deep-Sea Research Part II, Volume 43, No. 4/6.
Topical Studies in Oceanography, A U.S. JGOFS Process Study in the Equatorial Pacific (1997), Deep-Sea Research Part II, Volume 44, No. 9/10.
Topical Studies in Oceanography, The Equatorial Pacific JGOFS Synthesis (2002), Deep-Sea Research Part II, Volume 49, Nos. 13/14.
The United States Joint Global Ocean Flux Study was a national component of international JGOFS and an integral part of global climate change research.
The U.S. launched the Joint Global Ocean Flux Study (JGOFS) in the late 1980s to study the ocean carbon cycle. An ambitious goal was set to understand the controls on the concentrations and fluxes of carbon and associated nutrients in the ocean. A new field of ocean biogeochemistry emerged with an emphasis on quality measurements of carbon system parameters and interdisciplinary field studies of the biological, chemical and physical process which control the ocean carbon cycle. As we studied ocean biogeochemistry, we learned that our simple views of carbon uptake and transport were severely limited, and a new "wave" of ocean science was born. U.S. JGOFS has been supported primarily by the U.S. National Science Foundation in collaboration with the National Oceanic and Atmospheric Administration, the National Aeronautics and Space Administration, the Department of Energy and the Office of Naval Research. U.S. JGOFS, ended in 2005 with the conclusion of the Synthesis and Modeling Project (SMP).