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Articles 1 - 30 of 84
Full-Text Articles in Physical Sciences and Mathematics
Escolar (Lepidocybium Flavobrunneum) Neurocranium, Meredith M. Pratt, Katerina D. Sawickij, David W. Kerstetter
Escolar (Lepidocybium Flavobrunneum) Neurocranium, Meredith M. Pratt, Katerina D. Sawickij, David W. Kerstetter
All Scans: Kerstetter Fisheries and Avian Ecology 3D Scan Series
Neurocranium prep of escolar Lepidocybium flavobrunneum obtained from longlining vessel.
Sea Surface Roughness Observed By High Resolution Radar, Atsushi G. Fujimura, Susanne Lehner, Alexander Soloviev, Xiaofeng Li
Sea Surface Roughness Observed By High Resolution Radar, Atsushi G. Fujimura, Susanne Lehner, Alexander Soloviev, Xiaofeng Li
Marine & Environmental Sciences Faculty Articles
Changes in the sea surface roughness are usually associated with a change in the sea surface wind field. This interaction has been exploited to measure the sea surface wind speed by scatterometry. A number of features on the sea surface associated with changes in roughness can be observed by synthetic aperture radar (SAR) because of the change in Bragg backscatter of the radar signal by damping of the resonant ocean capillary waves. With various radar frequencies, resolutions, and modes of polarization, sea surface features have been analyzed in numerous campaigns, bringing various datasets together, thus allowing for new insights in …
Presence/Absence And Density Data For Epipelagic Tows Collected During R/V Blazing Seven Cruises Lf2016a And Lf2016b, Northern Gulf Of Mexico From 2016-06-09 To 2016-07-28, Jay R. Rooker, David Wells
Presence/Absence And Density Data For Epipelagic Tows Collected During R/V Blazing Seven Cruises Lf2016a And Lf2016b, Northern Gulf Of Mexico From 2016-06-09 To 2016-07-28, Jay R. Rooker, David Wells
DEEPEND Datasets
This dataset reports presence/absence and density data for epipelagic tows collected in the northern Gulf of Mexico during R/V Blazing Seven cruises LF2016A and LF2016B (2016-06-09 to 2016-07-28). Larval fishes were sampled from 48 stations and cruise data were collected at each site including latitude/longitude, date, time, environmental data (temperature, salinity, dissolved oxygen) and Sargassum dry weight. Larval catch data before and after the oil spill will be compared to improve our understanding of the causes of temporal variability as it relates to the Deep-Water Horizon oil spill (DWHOS). Habitat associations of selected taxa (billfishes, tunas, dolphinfishes, flyingfishes) will be …
Conductivity, Temperature, And Depth (Ctd) Data For Deepend Stations, Cruise Dp05, May 2017, David English, Chuanmin Hu, April Cook, Tracey Sutton
Conductivity, Temperature, And Depth (Ctd) Data For Deepend Stations, Cruise Dp05, May 2017, David English, Chuanmin Hu, April Cook, Tracey Sutton
DEEPEND Datasets
Conductivity, temperature, and depth data from the ship's CTD, which was deployed at each of the DEEPEND stations. Depth of cast was variable, but extended from near-surface waters to below the euphotic zone. This data also includes measurements from a red light transmissometer, a chlorophyll fluorometer, and a dissolved oxygen sensor. The data is used in the assessment of the water column's vertical structure, and for comparison with physical models. Data were collected in the northern Gulf of Mexico from May 2-12, 2017.
Conductivity, Temperature And Depth (Ctd) Data For Deepend Stations, Cruise Dp03, May 2016, David English, Chuanmin Hu, April Cook, Tracey Sutton
Conductivity, Temperature And Depth (Ctd) Data For Deepend Stations, Cruise Dp03, May 2016, David English, Chuanmin Hu, April Cook, Tracey Sutton
DEEPEND Datasets
Conductivity, temperature and depth data from the ship's CTD, which is deployed at each of the DEEPEND stations. Depth of cast is variable, but extends from near-surface waters to below the euphotic zone. This data is used in the assessment of the water column's vertical structure, and for comparison with physical models. Data were collected during cruise DP03 in the northern Gulf of Mexico, May 2016.
Habitat Classification Of The Gulf Of Mexico (Gom) Using The Hybrid Coordinate Ocean Model (Hycom) And Salinity/Temperature Profiles, Cruises Dp01-Dp04, May 2015 To August 2016, Matt Johnston, Rosanna Milligan, Cole Easson, Sergio Derada, Brad Penta, Tracey Sutton
Habitat Classification Of The Gulf Of Mexico (Gom) Using The Hybrid Coordinate Ocean Model (Hycom) And Salinity/Temperature Profiles, Cruises Dp01-Dp04, May 2015 To August 2016, Matt Johnston, Rosanna Milligan, Cole Easson, Sergio Derada, Brad Penta, Tracey Sutton
DEEPEND Datasets
Deep pelagic habitat from the entire Gulf of Mexico (GOM) was classified using the deviation of sea surface height (SSH) from mean SSH for the entire GOM and water temperature at 300 m water depth, founded on ocean condition data from the 1/25° GOM HYbrid Coordinate Ocean Model (HYCOM). Pelagic habitats were segregated into anticyclonic, mixed boundaries, and common water units – all of which likely produce varying levels of forage for deep-sea fauna and may be trophic drivers. Model classifications were compared to classifications based on water column temperature and salinity at depth, as measured by CTD casts during …
Conductivity, Temperature And Depth (Ctd) Data For Deepend Stations, Cruise Dp04, August 2016, David English, Chuanmin Hu, April Cook, Tracey Sutton
Conductivity, Temperature And Depth (Ctd) Data For Deepend Stations, Cruise Dp04, August 2016, David English, Chuanmin Hu, April Cook, Tracey Sutton
DEEPEND Datasets
Conductivity, temperature and depth data from the ship's CTD, which was deployed at each of the DEEPEND stations. Depth of cast was variable, but extended from near-surface waters to below the euphotic zone. This data was used in the assessment of the water column's vertical structure, and for comparison with physical models. Data were collected on cruise DP04 in August, 2016.
Cruise Data For Neuston Net And Paired Bongo Net Tows From 47 Stations In The Northern Gulf Of Mexico From R/V Pelican Cruise Lf2017a July 2017, Jay R. Rooker, R.J. David Wells
Cruise Data For Neuston Net And Paired Bongo Net Tows From 47 Stations In The Northern Gulf Of Mexico From R/V Pelican Cruise Lf2017a July 2017, Jay R. Rooker, R.J. David Wells
DEEPEND Datasets
Shelf and slope waters in the Deep Water Horizon oil spill (DWHOS) area are known to serve as critical spawning, nursery, and foraging habitat of several important oceanic species including billfishes (e.g. blue marlin, white marlin, sailfish), tunas (bluefin tuna, yellowfin tuna), and other pelagic taxa (swordfish, dolphinfishes). The aim of this component was to further investigate potential ecological effects of the DWHOS on pelagic fishes during the early life period. Larval fishes were sampled from 48 stations in the northern Gulf of Mexico and cruise data was collected at each site including latitude/longitude, date, time and environmental data (sea …
Cruise Data For Neuston Net And Paired Bongo Net Tows From 48 Stations In The Northern Gulf Of Mexico From R/V Blazing Seven Cruises Lf2016a And Lf2016b, June-July 2016, Jay R. Rooker, R.J. David Wells
Cruise Data For Neuston Net And Paired Bongo Net Tows From 48 Stations In The Northern Gulf Of Mexico From R/V Blazing Seven Cruises Lf2016a And Lf2016b, June-July 2016, Jay R. Rooker, R.J. David Wells
DEEPEND Datasets
Shelf and slope waters in the Deep Water Horizon oil spill (DWHOS) area are known to serve as critical spawning, nursery, and foraging habitat of several important oceanic species including billfishes (e.g. blue marlin, white marlin, sailfish), tunas (bluefin tuna, yellowfin tuna), and other pelagic taxa (swordfish, dolphinfishes). The aim of this component was to further investigate potential ecological effects of the DWHOS on pelagic fishes during the early life period. Larval fishes were sampled from 48 stations in the northern Gulf of Mexico and cruise data was collected at each site including latitude/longitude, date, time and environmental data (sea …
Presence/Absence And Density Data For Epipelagic Tows From 48 Stations In The Northern Gulf Of Mexico From R/V Blazing Seven Cruises Lf2015a And Lf2015b June 2015 And July 2015, Jay R. Rooker, R.J. David Wells
Presence/Absence And Density Data For Epipelagic Tows From 48 Stations In The Northern Gulf Of Mexico From R/V Blazing Seven Cruises Lf2015a And Lf2015b June 2015 And July 2015, Jay R. Rooker, R.J. David Wells
DEEPEND Datasets
Larval catch data after the oil spill is being used to improve our understanding of the causes of temporal variability as it relates to the Deep Water Horizon oil spill (DWHOS). Bongo and neuston net tows were conducted at 48 stations in both June and July, 2015 in the northern Gulf of Mexico. Cruise data collected at each site included latitude/longitude, date, time and environmental data (temperature, salinity, dissolved oxygen). The occurrence and density of selected epipelagic (e.g., billfishes, tunas, dolphinfishes, flyingfishes) and deep pelagic (e.g., lanternfishes, bristlemouths, marine hatchetfishes) fish larvae were quantified and are being used to extend …
Cruise Data For Neuston Net And Paired Bongo Net Tows From 48 Stations In The Northern Gulf Of Mexico From R/V Blazing Seven Cruises Lf2015a And Lf2015b June 2015 And July 2015, Jay R. Rooker, R.J. David Wells
Cruise Data For Neuston Net And Paired Bongo Net Tows From 48 Stations In The Northern Gulf Of Mexico From R/V Blazing Seven Cruises Lf2015a And Lf2015b June 2015 And July 2015, Jay R. Rooker, R.J. David Wells
DEEPEND Datasets
Shelf and slope waters in the Deep Water Horizon oil spill (DWHOS) area are known to serve as critical spawning, nursery, and foraging habitat of several important oceanic species including billfishes (e.g. blue marlin, white marlin, sailfish), tunas (bluefin tuna, yellowfin tuna), and other pelagic taxa (swordfish, dolphinfishes). The aim of this component was to further investigate potential ecological effects of the DWHOS on pelagic fishes during the early life period. Larval fishes were sampled from 48 stations in the northern Gulf of Mexico and cruise data was collected at each site including latitude/longitude, date, time and environmental data (sea …
Adcp Mooring System On The Southeast Florida Shelf, Alexander Soloviev, Cayla Whitney Dean, Robert H. Weisberg, Mark E. Luther, Jon Wood
Adcp Mooring System On The Southeast Florida Shelf, Alexander Soloviev, Cayla Whitney Dean, Robert H. Weisberg, Mark E. Luther, Jon Wood
Marine & Environmental Sciences Faculty Reports
No abstract provided.
Volume 7, Number 7 (July 1983), The Solar Ocean Energy Liaison
Volume 7, Number 7 (July 1983), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 7, Number 6 (June 1983), The Solar Ocean Energy Liaison
Volume 7, Number 6 (June 1983), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 7, Number 5 (May 1983), The Solar Ocean Energy Liaison
Volume 7, Number 5 (May 1983), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 7, Number 4 (April 1983), The Solar Ocean Energy Liaison
Volume 7, Number 4 (April 1983), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 7, Number 3 (March 1983), The Solar Ocean Energy Liaison
Volume 7, Number 3 (March 1983), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 7, Number 2 (February 1983), The Solar Ocean Energy Liaison
Volume 7, Number 2 (February 1983), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 7, Number 1 (January 1983), The Solar Ocean Energy Liaison
Volume 7, Number 1 (January 1983), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 12 (December 1982), The Solar Ocean Energy Liaison
Volume 6, Number 12 (December 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 11 (November 1982), The Solar Ocean Energy Liaison
Volume 6, Number 11 (November 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 10 (October 1982), The Solar Ocean Energy Liaison
Volume 6, Number 10 (October 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 9 (September 1982), The Solar Ocean Energy Liaison
Volume 6, Number 9 (September 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 8 (August 1982), The Solar Ocean Energy Liaison
Volume 6, Number 8 (August 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 7 (July 1982), The Solar Ocean Energy Liaison
Volume 6, Number 7 (July 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 6 (June 1982), The Solar Ocean Energy Liaison
Volume 6, Number 6 (June 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 5 (May 1982), The Solar Ocean Energy Liaison
Volume 6, Number 5 (May 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Number 4 (April 1982), The Solar Ocean Energy Liaison
Volume 6, Number 4 (April 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.
Volume 6, Numbers 1 & 2 (February & March 1982), The Solar Ocean Energy Liaison
Volume 6, Numbers 1 & 2 (February & March 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
Note that this issue should be Numbers 2 & 3, not Numbers 1 & 2.
Volume 6, Number 1 (January 1982), The Solar Ocean Energy Liaison
Volume 6, Number 1 (January 1982), The Solar Ocean Energy Liaison
The OTEC Liaison
No abstract provided.