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1. Global Observing Needs in the Deep Ocean

Author

Levin, Lisa A, Bett, Brian J, Gates, Andrew R, Heimbach, Patrick, Howe, Bruce M, Janssen, Felix, McCurdy, Andrea, Ruhl, Henry A, Snelgrove, Paul, Stocks, Karen I, Bailey, David, Baumann-Pickering, Simone, Beaverson, Chris, Benfield, Mark C, Booth, David J, Carreiro-Silva, Marina, Colaco, Ana, Eble, Marie C, Fowler, Ashley M, Gjerde, Kristina M, Jones, Daniel OB, Katsumata, K, Kelley, Deborah, Le Bris, Nadine, Leonardi, Alan P, Lejzerowicz, Franck, Macreadie, Peter I, McLean, Dianne, Meitz, Fred, Morato, Telmo, Netburn, Amanda, Pawlowski, Jan, Smith, Craig R, Sun, Song, Uchida, Hiroshi, Vardaro, Michael F, Venkatesan, R, and Weller, Robert A

Subjects
deep sea, ocean observation, blue economy, essential ocean variables, biodiversity, ocean sensors, Oceanography, Ecology
Published
2019

2. Telepresence is a potentially transformative tool for field science

Author

Marlow, Jeffrey, Borrelli, Chiara, Jungbluth, Sean P, Hoffman, Colleen, Marlow, Jennifer, Girguis, Peter R, Dekas, Anne, Skarke, Adam, Blackman, Donna, Fornari, Dan, Soule, Adam, Van Dover, Cindy, Bagge, Laura, Barco, Roman, Boulahanais, Bridgit, Bowman, Kaitlin, Brugler, Mercer, Bush, Stephanie, Djurhuus, Anni, Fernandez, Julianne, Fulweiler, Robinson, Jungbluth, Sean, Kinsey, Joanna, Kocot, Kevin, McVeigh, Doreen, Navarro, Michael, Netburn, Amanda, Pasulka, Alexis, Twing, Katrina, Wagner, Amy, and Zambon, Joe

Subjects
AT-36 Team
Published
2017

3. Sponsored Projects : The NOAA Office of Ocean Exploration and Research

Author

Valette-Silver, Nathalie, Hammond, Stephen R., Cantelas, Frank, Beaverson, Chris, Copeland, Adrienne, Egan, Katharine, Netburn, Amanda N., Bohan, Margot, Jefferson, Yvette, Woodford, Joyce, Voss, Joshua, Pomponi, Shirley, Iken, Katrin, Smith, John R., Watling, Les, Summers, Natalie, Roark, E. Brendan, Morgan, Nicole, Lensing, Becca, France, Scott C., Dulai, Henrietta, Carter, Glenn S., Bingo, Sarah, Baco-Taylor, Amy, German, Christopher R., Johnsen, Sönke, Hall, Emily R., Culter, Jim, Beckler, Jordon, Talliefert, Martial, Stewart, Frank, Smith, Chris, Hamdan, Leila, Evans, Amanda, Kaiser, Carl L., Lindzey, Laura, Jakuba, Michael V., Partan, James W., and Dolan, Christopher

Published
2020

5. Sponsored Projects : NOAA’s Office of Ocean Exploration and Research

Author

Valette-Silver, Nathalie, Cantelas, Frank, Beaverson, Chris, Netburn, Amanda N., Murphy, James, Elliott, Kelley, Hammond, Stephen R., Jefferson, Yvette, Woodford, Joyce, Voss, Joshua, Pomponi, Shirley, Drazen, Jeffrey C., Church, Matthew, Dahlgren, Thomas, Durden, Jennifer, Glover, Adrian, Goetze, Erica, Leitner, Astrid, Smith, Craig R., Sweetman, Andrew, Pietruszka, Andrew T., Terrill, Eric J., Moline, Mark A., Lusardi, Wayne R., Carrell, Toni L., Hoyt, Joseph C., Bartlett, Doug, Plominsky, Alvaro Muñoz, Schmidt, Wilford, Rojas, Danilo, Smith, Ryan, Jimenez, Manuel, Roman, Christopher, Warren, Joe, Cordes, Erik, Seibel, Brad, Macelloni, Leonardo, Zhang, Likun, Rad, Parsa, and Zou, Zheguang

Published
2019

7. Gulf of Mexico Technology Demonstration

Author

Twardowski, Michael, Dalgleish, Fraser, Coleman, Thomas, Amaral, Brian, Kennedy, Brian R.C., Pawlenko, Nick, Netburn, Amanda N., and Beaverson, Chris

Published
2019

11. Sponsored Projects : NOAA’s Office of Ocean Exploration and Research

Author

Valette-Silver, Nathalie, Cantelas, Frank, Beaverson, Chris, Netburn, Amanda, Jefferson, Yvette, Woodford, Joyce, Hammond, Stephen, Pomponi, Shirley, Reed, John, Voss, Joshua, Hanisak, Dennis, Diaz, M. Cristina, David, Andrew, Drummond, Felicia, González-Díaz, Patricia, López, Linnet Busutil, Martínez-Daranas, Beatriz, Rojas, Dorka Cobián, Bright, John, Green, Russell, Keogh, Kelly, Ho, Bert, Embley, Robert, Merle, Susan, Raineault, Nicole A., Gee, Lindsay, Ruppel, Carolyn, Demopoulos, Amanda W.J., Prouty, Nancy, Canonico, Gabrielle, Bohan, Margot, Nizinski, Martha, Adams, Caitlin, McNeil, Craig, D’Asaro, Eric, Reed, Andrew, Altabet, Mark A., and Bourbonnais, Annie

Published
2018

13. Fisheries Management in California: Two Case Assessments

Author

Netburn, Amanda

Subjects
Marine Life Management Act, fishery management plans, fishery regulation, emerging fisheries, recreational fisheries, data-poor fisheries, data-poor fisheries evaluation, data-poor fisheries management, Kellet’s whelk, Kelletia kelletii, barred sand bass, Paralabrax nebulifer, kelp bass, Paralabrax maculatofasciatus
Abstract

California’s Marine Life Management Act is a broad piece of legislation that mandates California’s living marine resources be managed with a goal of long-term sustainability. The Act went into effect in 1999, since which time the Fish and Game Commission and the Department of Fish and Game have satisfied a number of explicitly required elements. These include completion of Status of the Fisheries Report, a Master Plan that prioritizes fisheries for future management, and fishery management plans (FMPs) for several species. Discussions are underway for assessments and/or management for a few other species. However, due to lack of adequate financial and personnel resources, well-defined deadlines or repercussions, momentum has slowed on implementing the intended wide-ranging management for all species. Specific elements that have not been adequately addressed include: emerging fisheries, recreational fisheries, and managing data-poor fisheries (applicable to the first two). This paper explores some simple tools for evaluating and managing data-poor fisheries. Kellet’s whelk is examined as a possible emerging fishery, and barred sand bass and kelp bass are considered together as important components of the recreational fishery. The findings indicate that simple assessments are possible with available data, interim management is essential for emerging fisheries and spatial scale is important for management considerations.

Published
2010

17. Nautilus Field Season Overview

Author

Bell, Katherine L.C., Raineault, Nicole, Ballard, Robert D., Moran, Kate, Round, Adrian, Kulin, Ian, Dewey, Richard, Embley, Robert, Merle, Susan, Baumberger, Tamara, Seabrook, Sarah, Hammond, Stephen, Delgado, James P., Cantelas, Frank, Symons, Lisa J., Brennan, Michael L., Bergondo, Deanna, Sanders, Richard, Reger, Evan, Johnson, Donald L., Marc, Jacques, Schwemmer, Robert V., Edgar, Lea, MacLeod, Duncan, Roletto, Jan, Williams, Gary, Piotrowski, Christina, Cochrane, Guy, Wagner, Jamie, Marranzino, Ashley, Matthews, Russell, Elliott, Kelley, Vetter, Kai, Figueroa, Christopher, Lickliter-Mundon, Megan, Girguis, Peter, Auscavitch, Steve, Castillo, Chris, Lubetkin, Megan, Marlow, Jeffrey, Pak, Dorothy, Myhre, Sarah E., Kennett, James, Netburn, Amanda, Kane, Renato, Coleman, Dwight, Etnoyer, Peter, Caldow, Chris, Bursek, Julie, Marsh, Leigh, Sautter, Will, Freedman, Ryan, Cormier, Marie-Helene, Sharuga, Stephanie M., Conrad, James, Amon, Diva, Legg, Mark, Barnhill, Kelsey, Lovell, Lawrence L., and Klemperer, Simon L.

Published
2017

18. CAPSTONE : Exploring the US Marine Protected Areas in the Central and Western Pacific

Author

NOAA Ship Okeanos Explorer EX1605 Expedition Team, Brooke, Samantha, Kelley, Christopher, Kosaki, Randall K., Parke, Michael, Parrish, Frank, Bowman, Amy, Potter, Jeremy, Wagner, Daniel, Tree, Jonathan, Kennedy, Brian R.C., Cantwell, Kasey, Amon, Diva J., Fryer, Patricia, Glickson, Deborah, Pomponi, Shirley A., Lobecker, Elizabeth, Elliott, Kelley, Sowers, Derek, Ford, Mike, Netburn, Amanda, Konter, Jasper, Cantelas, Frank, VanTilburg, Hans, Fabian, Gary, Kinney, Jeremy R., and Tully, Anthony

Published
2017

21. Responses of mesopelagic fish assemblages to environmental disturbance: ocean deoxygenation and oceanic fronts

Author

Netburn, Amanda Nicole

Subjects
Biological oceanography, Ecology, Bioacoustics, Ecophysiology, Fish Ecology, Hypoxia, Mesopelagic, Ocean Deoxygenation
Abstract

Throughout the global ocean, there is an abundant and diverse assemblage of fishes aggregated at mesopelagic (200-1000 m) depths. These fishes are critical to pelagic food webs and carbon transport. In the southern California Current Ecosystem, with naturally hypoxic mesopelagic waters, mesopelagic fishes may be vulnerable to predicted ocean deoxygenation. Additionally, water property discontinuities at oceanic fronts can disproportionately affect abundance, compositions, and reproduction of marine animals. In this dissertation, I investigate responses of mesopelagic fishes to ocean deoxygenation and fronts. First, I correlated acoustically-detected Deep-Scattering Layers (DSL) of mesopelagic fishes with midwater oxygen, irradiance, and temperature, and found that the lower DSL boundary correlates most with oxygen. The upper boundary correlates with both oxygen and irradiance. Assuming current deoxygenation rates, I predicted both lower and upper boundaries will shoal. Next, I measured activities of the aerobic enzymes Citrate Synthase and Malate Dehydrogenase, and the anaerobic enzyme Lactate Dehydrogenase to test for changes in metabolic activities of mesopelagic fish in response to dissolved oxygen. There was an apparent suppression of activity at low oxygen concentrations for all species combined. There was no increased reliance on anaerobic activity at depressed oxygen concentrations. Although there is evidence that some mesopelagic fishes may have a rare alternate anaerobic pathway catalyzed in part by Alcohol Dehydrogenase, I did not detect any Alcohol Dehydrogenase activity for 16 species studied.Finally, I compared responses of mesopelagic fish assemblages at three frontal systems. I found no abundance changes across fronts, except for larvae which were elevated at the most stable system. Non-vertically migratory assemblages were uniform across frontal gradients, while migratory and larval fish assemblages were typically altered across fronts. Changes in population growth potential were detected across the two more stable frontal systems for migrators and larvae, though not for non-migrators. These results suggest that deoxygenation may cause habitat compression andmetabolic suppression, while changes to frontal frequency could impact the structure andpopulation growth of mesopelagic fish assemblages. Ongoing monitoring of thesepopulations using existing and novel technologies will allow further understanding ofmesopelagic fish responses to these and other environmental changes.

Published
2016

25. Global Observing Needs in the Deep Ocean

Author

Levin, Lisa A., primary, Bett, Brian J., additional, Gates, Andrew R., additional, Heimbach, Patrick, additional, Howe, Bruce M., additional, Janssen, Felix, additional, McCurdy, Andrea, additional, Ruhl, Henry A., additional, Snelgrove, Paul, additional, Stocks, Karen I., additional, Bailey, David, additional, Baumann-Pickering, Simone, additional, Beaverson, Chris, additional, Benfield, Mark C., additional, Booth, David J., additional, Carreiro-Silva, Marina, additional, Colaço, Ana, additional, Eblé, Marie C., additional, Fowler, Ashley M., additional, Gjerde, Kristina M., additional, Jones, Daniel O. B., additional, Katsumata, K., additional, Kelley, Deborah, additional, Le Bris, Nadine, additional, Leonardi, Alan P., additional, Lejzerowicz, Franck, additional, Macreadie, Peter I., additional, McLean, Dianne, additional, Meitz, Fred, additional, Morato, Telmo, additional, Netburn, Amanda, additional, Pawlowski, Jan, additional, Smith, Craig R., additional, Sun, Song, additional, Uchida, Hiroshi, additional, Vardaro, Michael F., additional, Venkatesan, R., additional, and Weller, Robert A., additional

Published
2019
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26. Global Observing Needs in the Deep Ocean

Author

Levin, Lisa A., Bett, Brian J., Gates, Andrew R., Heimbach, Patrick, Howe, Bruce M., Janssen, Felix, McCurdy, Andrea, Ruhl, Henry A., Snelgrove, Paul, Stocks, Karen I., Bailey, David, Baumann-Pickering, Simone, Beaverson, Chris, Benfield, Mark C., Booth, David J., Carreiro-Silva, Marina, Colaço, Ana, Eblé, Marie C., Fowler, Ashley M., Gjerde, Kristina M., Jones, Daniel O. B., Katsumata, K., Kelley, Deborah, Le Bris, Nadine, Leonardi, Alan P., Lejzerowicz, Franck, Macreadie, Peter I., McLean, Dianne, Meitz, Fred, Morato, Telmo, Netburn, Amanda, Pawlowski, Jan, Smith, Craig R., Sun, Song, Uchida, Hiroshi, Vardaro, Michael F., Venkatesan, R., Weller, Robert A., Levin, Lisa A., Bett, Brian J., Gates, Andrew R., Heimbach, Patrick, Howe, Bruce M., Janssen, Felix, McCurdy, Andrea, Ruhl, Henry A., Snelgrove, Paul, Stocks, Karen I., Bailey, David, Baumann-Pickering, Simone, Beaverson, Chris, Benfield, Mark C., Booth, David J., Carreiro-Silva, Marina, Colaço, Ana, Eblé, Marie C., Fowler, Ashley M., Gjerde, Kristina M., Jones, Daniel O. B., Katsumata, K., Kelley, Deborah, Le Bris, Nadine, Leonardi, Alan P., Lejzerowicz, Franck, Macreadie, Peter I., McLean, Dianne, Meitz, Fred, Morato, Telmo, Netburn, Amanda, Pawlowski, Jan, Smith, Craig R., Sun, Song, Uchida, Hiroshi, Vardaro, Michael F., Venkatesan, R., and Weller, Robert A.

Abstract

The deep ocean below 200 m water depth is the least observed, but largest habitat on our planet by volume and area. Over 150 years of exploration has revealed that this dynamic system provides critical climate regulation, houses a wealth of energy, mineral, and biological resources, and represents a vast repository of biological diversity. A long history of deep-ocean exploration and observation led to the initial concept for the Deep-Ocean Observing Strategy (DOOS), under the auspices of the Global Ocean Observing System (GOOS). Here we discuss the scientific need for globally integrated deep-ocean observing, its status, and the key scientific questions and societal mandates driving observing requirements over the next decade. We consider the Essential Ocean Variables (EOVs) needed to address deep-ocean challenges within the physical, biogeochemical, and biological/ecosystem sciences according to the Framework for Ocean Observing (FOO), and map these onto scientific questions. Opportunities for new and expanded synergies among deep-ocean stakeholders are discussed, including academic-industry partnerships with the oil and gas, mining, cable and fishing industries, the ocean exploration and mapping community, and biodiversity conservation initiatives. Future deep-ocean observing will benefit from the greater integration across traditional disciplines and sectors, achieved through demonstration projects and facilitated reuse and repurposing of existing deep-sea data efforts. We highlight examples of existing and emerging deep-sea methods and technologies, noting key challenges associated with data volume, preservation, standardization, and accessibility. Emerging technologies relevant to deep-ocean sustainability and the blue economy include novel genomics approaches, imaging technologies, and ultra-deep hydrographic measurements. Capacity building will be necessary to integrate capabilities into programs and projects at a global scale. Progress can be facilitated by

Published
2019

27. Alliance for Coastal Technologies Workshop Proceedings: National Coastal Ecosystem Moorings Workshop. University of Washington 20-21 March 2018

Author

McManus, Margaret, Bailey, Kathleen, Send, Uwe, Burt, Richard, Newton, Jan, Schar, Daniel, Morrison, Ru, Doucette, Gregory, Allee, Rebecca, Berchok, Catherine, Buschang, Steve, Butler, Richard, Canonico Hyde, Gabrielle, Chavez, Francisco, Colbert, Steve, Crawford, Jim, Danielson, Seth, Dever, Edward Paul, Dorton, Jennifer, Esteves, Rene, Green, Rebecca, Grissom, Karen, Hall, Candice, Harvey, Chris, Janzen, Carol, McArthur, Shannon, Melzian, Brian, Mickett, John, Mudge, Todd, Muller-Karger, Frank, Netburn, Amanda, Nosal, Eva-Marie, O'Donnell, James, Quintrell, Josie, Ruberg, Steven, Sabine, Christopher, Tamburri, Mario, Todd, James, Verhamme, Ed, Walsh, Ian, and Wilson, William Douglas

Abstract

The Alliance for Coastal Technologies (ACT, www.act-us.info) convened the "National Coastal Ecosystem Moorings Workshop" in Seattle, Washington at the University of Washington on 20 and 21 March 2018. The primary objectives of this workshop were to: 1) Provide a synthesis of stakeholder information requirements, 2) Explore current and emerging sensors to meet those requirements, 3) Provide a summary of technical needs inclusive of power and telemetry, 4) Provide a summary of deployment logistics, operation and maintenance, 5) Identify tiers/options for ecosystem moorings configurations, dependent on the regions and costs, and to 6) Discuss integration (data management, communications, infrastructure) with other observing systems. The participants were from various sectors including research scientists, technology developers, industry providers, and technology users. U.S. IOOS Published Refereed Current

Published
2018

32. Hydrothermal Vents and Methane Seeps: Rethinking the Sphere of Influence

Author

Levin, Lisa A., primary, Baco, Amy R., additional, Bowden, David A., additional, Colaco, Ana, additional, Cordes, Erik E., additional, Cunha, Marina R., additional, Demopoulos, Amanda W. J., additional, Gobin, Judith, additional, Grupe, Benjamin M., additional, Le, Jennifer, additional, Metaxas, Anna, additional, Netburn, Amanda N., additional, Rouse, Greg W., additional, Thurber, Andrew R., additional, Tunnicliffe, Verena, additional, Van Dover, Cindy Lee, additional, Vanreusel, Ann, additional, and Watling, Les, additional

Published
2016
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35. Introduction.

Author

Valette-Silver, Nathalie, Cantelas, Frank, Beaverson, Chris, Netburn, Amanda N., Murphy, James, Elliott, Kelley, Hammond, Stephen R., Jefferson, Yvette, and Woodford, Joyce

Subjects
UNDERWATER exploration, MARINE parks & reserves, FISCAL year, TECHNOLOGICAL innovations, MARINE sciences
Published
2019

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