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Future Ocean Observations to Connect Climate, Fisheries and Marine Ecosystems
  • Jörn O. Schmidt, Steven J. Bograd, Haritz Arrizabalaga, José L. Azevedo, Steven J. Barbeaux, John A. Barth, Tim Boyer, Stephanie Brodie, Juan José Cárdenas, Scott Cross, Jean-Noël Druon, Agneta Fransson, Jason Hartog, Elliott L. Hazen, Alistair Hobday, Michael Jacox, Johannes Karstensen, Sven Kupschus, Jon Lopez, Lauro A. S.-P. Madureira, Martinelli Filho José E., Patricia Miloslavich, Catarina P. Santos, Kylie Scales, Sabrina Speich, Matthew B. Sullivan, Amber Szoboszlai, Desiree Tommasi, Douglas Wallace, Stephani Zador, Paulo Antônio Zawislak,
  • Frontiers in Marine Science
  • September 12, 2019
Citation: Schmidt, J. O., Bograd, S. J., Arrizabalaga, H., Azevedo, J. L., Barbeaux, S. J., Barth, J. A., Boyer, T., Brodie, S., Cardenas, J. J., Cross, S., Druon, J. N., Fransson, A., Hartog, J., Hazen, E. L., Hobday, A., Jacox, M., Karstensen, J., Kupschus, S., Lopez, J., . . . Zawislak, P. A. (2019). Future Ocean Observations to Connect Climate, Fisheries and Marine Ecosystems. Frontiers in Marine Science, 6. https://doi.org/10.3389/fmars.2019.00550
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Biogeochemical Anomalies at Two Southern California Current System Moorings During the 2014–2016 Warm Anomaly-El Niño Sequence
Citation: Lilly, L. E., Send, U., Lankhorst, M., Martz, T. R., Feely, R. A., Sutton, A. J., & Ohman, M. D. (2019). Biogeochemical anomalies at two southern California Current System moorings during the 2014–2016 Warm Anomaly-El Niño sequence. Journal of Geophysical Research: Oceans, 124, 6886–6903. https://doi.org/10.1029/2019JC015255
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Constraining the Oceanic Uptake and Fluxes of Greenhouse Gases by Building an Ocean Network of Certified Stations: The Ocean Component of the Integrated Carbon Observation System, ICOS-Oceans
  • Tobias Steinhoff, Thanos Gkritzalis, Siv K. Lauvset, Steve Jones, Ute Schuster, Are Olsen, Meike Becker, Roberto Bozzano, Fabio Brunetti, Carolina Cantoni, Vanessa Cardin, Denis Diverrès, Björn Fiedler, Agneta Fransson, Michele Giani, Sue Hartman, Mario Hoppema, Emil Jeansson, Truls Johannessen, Vassilis Kitidis, Arne Körtzinger, Camilla Landa, Nathalie Lefèvre, Anna Luchetta, Lieven Naudts, Philip D. Nightingale, Abdirahman M. Omar, Sara Pensieri, Benjamin Pfeil, Rocío Castaño-Primo, Gregor Rehder, Anna Rutgersson, Richard Sanders, Ingo Schewe, Giuseppe Siena, Ingunn Skjelvan, Thomas Soltwedel, Steven van Heuven, Andrew Watson
  • Frontiers in Marine Science
  • September 2, 2019
Citation: Steinhoff, T., Gkritzalis, T., Lauvset, S. K., Jones, S., Schuster, U., Olsen, A., Becker, M., Bozzano, R., Brunetti, F., Cantoni, C., Cardin, V., Diverrès, D., Fiedler, B., Fransson, A., Giani, M., Hartman, S., Hoppema, M., Jeansson, E., Johannessen, T., . . . Watson, A. (2019). Constraining the Oceanic Uptake and Fluxes of Greenhouse Gases by Building an Ocean Network of Certified Stations: The Ocean Component of the Integrated Carbon Observation System, ICOS-Oceans. Frontiers in Marine Science. https://doi.org/10.3389/fmars.2019.00544
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Simultaneous determination of dissolved inorganic carbon (DIC) concentration and stable isotope (δ13C-DIC) by Cavity Ring-Down Spectroscopy: Application to study carbonate dynamics in the Chesapeake Bay
  • Jianzhong Su, Wei-Jun Cai, Najid Hussain, Jean Brodeur, Baoshan Chen, Kuan Huang
  • Marine Chemistry
  • July 27, 2019
Citation: Jianzhong Su, Wei-Jun Cai, Najid Hussain, Jean Brodeur, Baoshan Chen, Kuan Huang, Simultaneous determination of dissolved inorganic carbon (DIC) concentration and stable isotope (δ13C-DIC) by Cavity Ring-Down Spectroscopy: Application to study carbonate dynamics in the Chesapeake Bay, Marine Chemistry, Volume 215, 2019, 103689, ISSN 0304-4203, https://doi.org/10.1016/j.marchem.2019.103689.
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Uncovering mechanisms of global ocean change effects on the Dungeness crab (Cancer magister) through metabolomics analysis
  • Shelly A. Wanamaker, Paul McElhany, Michael Maher, Danielle Perez, D. Shallin Busch, Krista M. Nichols
  • Scientific Reports
  • July 24, 2019
Citation: Wanamaker, S.A., McElhany, P., Maher, M. et al. Uncovering mechanisms of global ocean change effects on the Dungeness crab (Cancer magister) through metabolomics analysis. Sci Rep 9, 10717 (2019). https://doi.org/10.1038/s41598-019-46947-6
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Global Observational Needs and Resources for Marine Biodiversity
  • Canonico Gabrielle , Buttigieg Pier Luigi , Montes Enrique , Muller-Karger Frank E. , Stepien Carol , Wright Dawn , Benson Abigail , Helmuth Brian , Costello Mark , Sousa-Pinto Isabel , Saeedi Hanieh , Newton Jan , Appeltans Ward , Bednaršek Nina , Bodrossy Levente , Best Benjamin D. , Brandt Angelika , Goodwin Kelly D. , Iken Katrin , Marques Antonio C. , Miloslavich Patricia , Ostrowski Martin , Turner Woody , Achterberg Eric P. , Barry Tom , Defeo Omar , Bigatti Gregorio , Henry Lea-Anne , Ramiro-Sánchez Berta , Durán Pablo , Morato Telmo , Roberts J. Murray , García-Alegre Ana , Cuadrado Mar Sacau , Murton Bramley
  • Frontiers in Marine Science
  • July 22, 2019
Citation: Canonico Gabrielle , Buttigieg Pier Luigi , Montes Enrique , Muller-Karger Frank E. , Stepien Carol , Wright Dawn , Benson Abigail , Helmuth Brian , Costello Mark , Sousa-Pinto Isabel , Saeedi Hanieh , Newton Jan , Appeltans Ward , Bednaršek Nina , Bodrossy Levente , Best Benjamin D. , Brandt Angelika , Goodwin Kelly D. , Iken Katrin , Marques Antonio C. , Miloslavich Patricia , Ostrowski Martin , Turner Woody , Achterberg Eric P. , Barry Tom , Defeo Omar , Bigatti Gregorio , Henry Lea-Anne , Ramiro-Sánchez Berta , Durán Pablo , Morato Telmo , Roberts J. Murray , García-Alegre Ana , Cuadrado Mar Sacau , Murton Bramley, Global Observational Needs and Resources for Marine Biodiversity [Journal Article]. Frontiers in Marine Science, 6(367). https://doi.org/10.3389/fmars.2019.00367
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Bioeconomic modeling to inform Alaska fisheries management

Fishing Dock in Juneau Alaska
Image credit: Allen Shimada, NOAA NMFS

Bioeconomic models are a multidisciplinary tool that use oceanography, fisheries science and social science to assess socioeconomic impacts. Funded by the Ocean Acidification Program, researchers at the Alaska Fisheries Science Center use a bioeconomic model to study the impacts of ocean acidification on Eastern Bering Sea crab, northern rock sole and Alaska cod. The goal is to predict how ocean acidification will affect abundance yields and income generated by the fisheries. This work informs the potential economic impacts of ocean acidification and future decision making and research planning.

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Effects of ocean acidification and temperature on Alaskan crabs

Red King Crab
Image credit: David Csepp, NMFS AKFSC ABL

Long-term declines of red king crab in Bristol Bay, Alaska may be partially attributed to ocean acidification conditions. These impacts may be partially responsible for the fishery closures during the 2021–2022 and 2022–2023 seasons. Researchers found that ocean acidification negatively impacts Alaskan crabs generally by changing physiological processes, decreasing growth, increasing death rates and reducing shell thickness. Funded by the Ocean Acidification Program, scientists at the Alaska Fisheries Science Center continue to investigate the responses of early life history stages and study the potential of various Alaska crabs to acclimate to changing conditions. Results will inform models that will use the parameters studied to predict the effects of future ocean acidification on the populations of red king crab in Bristol Bay as well as on the fisheries that depend on them. Fishery managers will better be able to anticipate and manage stocks if changing ocean chemistry affects stock productivity and thus the maximum sustainable yield.

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Forecasts for Alaska Fisheries

Crab pots and fishing nets in Alaska's Dutch Harbor
Image credit: Michael Theberge

Understanding seasonal changes in ocean acidification in Alaskan waters and the potential impacts to the multi-billion-dollar fishery sector is a main priority. Through work funded by NOAA’s Ocean Acidification Program, the Pacific Marine Environmental Laboratory developed a model capable of depicting past ocean chemistry conditions for the Bering Sea and is now testing the ability of this model to forecast future conditions. This model is being used to develop an ocean acidification indicator provided to fisheries managers in the annual NOAA Eastern Bering Sea Ecosystem Status Report.

ADAPTING TO OCEAN ACIDIFICATION

The NOAA Ocean Acidification Program (OAP) works to prepare society to adapt to the consequences of ocean acidification and conserve marine ecosystems as acidification occurs. Learn more about the human connections and adaptation strategies from these efforts.

Adaptation approaches fostered by the OAP include:

FORECASTING

Using models and research to understand the sensitivity of organisms and ecosystems to ocean acidification to make predictions about the future, allowing communities and industries to prepare

Closeup of oysters cupped in someone's hands

MANAGEMENT

Using these models and predictions as tools to facilitate management strategies that will protect marine resources and communities from future changes

TECHNOLOGY DEVELOPMENT

Developing innovative tools to help monitor ocean acidification and mitigate changing ocean chemistry locally

REDUCING OUR CARBON FOOTPRINT

50 more ways to reduce your carbon footprint >

On the Road

Drive fuel-efficient vehicles or choose public transportation. Choose your bike or walk! Don't sit idle for more than 30 seconds. Keep your tires properly inflated.

With your Food Choices

Eat local- this helps cut down on production and transport! Reduce your meat and dairy. Compost to avoid food waste ending up in the landfill

With your Food Choices

Make energy-efficient choices for your appliances and lighting. Heat and cool efficiently! Change your air filters and program your thermostat, seal and insulate your home, and support clean energy sources

By Reducing Coastal Acidification

Reduce your use of fertilizers, Improve sewage treatment and run off, and Protect and restore coastal habitats

TAKE ACTION WITH YOUR COMMUNITY

You've taken the first step to learn more about ocean acidification - why not spread this knowledge to your community?

Every community has their unique culture, economy and ecology and what’s at stake from ocean acidification may be different depending on where you live.  As a community member, you can take a larger role in educating the public about ocean acidification. Creating awareness is the first step to taking action.  As communities gain traction, neighboring regions that share marine resources can build larger coalitions to address ocean acidification.  Here are some ideas to get started:

  1. Work with informal educators, such as aquarium outreach programs and local non-profits, to teach the public about ocean acidification. Visit our Education & Outreach page to find the newest tools!
  2. Participate in habitat restoration efforts to restore habitats that help mitigate the effects of coastal acidification
  3. Facilitate conversations with local businesses that might be affected by ocean acidification, building a plan for the future.
  4. Partner with local community efforts to mitigate the driver behind ocean acidification  – excess CO2 – such as community supported agriculture, bike & car shares and other public transportation options.
  5. Contact your regional Coastal Acidification Network (CAN) to learn how OA is affecting your region and more ideas about how you can get involved in your community
       More for Taking Community Action