Forecasting

Forecasting provides insight into a vision of the future by using models that visualize how quickly and where ocean chemistry will be changing in tandem with an understanding of how sensitive marine resources and communities are to these changes.  By making predictions about the future, we can better adapt and prepare for ocean acidification.

Modeling Projects

Modeling provides a glimpse into the future by combining predicted changes to ocean chemistry with impacts to both marine organisms and people.  These models allow communities and fishery managers to plan ahead and adapt to ocean acidification. Models are underway or have been completed for some of the most vulnerable species, such as Atlantic sea scallops, which are vulnerable to acidification impacts in their early life stages and represent the highest grossing single species fishery in the United States. The Ocean Acidification Program (OAP) funded a modeling project led by Woods Hole Oceanographic Institution to develop an integrated model for forecasting the impacts of ocean acidification (OA) on the Atlantic sea scallop fishery.  The new model connects chemical changes with population changes and economic information that will be used to create interactive tools for decision makers. NOAA scientists have played an important role in development of the J-SCOPE forecast system, used to create seasonal forecasts for the North Pacific region.  These forecasts will allow fisheries managers to predict seasonal outlooks for management decisions.

Vulnerability Assessments 

Learning how sensitive marine organisms are to ocean acidification is an important part of creating management plans. These “vulnerability assessments” lay the groundwork for adaptation strategies by identifying the most ecologically, economically or culturally  important resources. Scientists at NOAA Fisheries, which are supported  by the Ocean Acidification Program (OAP), are developing vulnerability assessments in US regions that include ocean acidification as part of fishery management plans. These ocean acidification vulnerability assessments have been completed in the Northeast for a wide variety of fishes and invertebrates, such as cod and sea scallops, and are near completion in Alaska.  Additionally, a vulnerability assessment was completed for shellfish aquaculture throughout the United States.  

From Observations to Forecasts

Learning ways in which communities can adapt to ocean acidification is an important strategy for protecting human health and marine ecosystems.  Turning current observations into forecasts is the key mechanism by which these adaptation plans are created. Coastal forecasts for ocean acidification are currently being developed for the West Coast, Chesapeake Bay, the East Coast, Caribbean and the western Gulf of Mexico. Ocean acidification hotspots are areas that are particularly vulnerable, either from a biological, economic, or cultural perspective.  Identification of these hot spots in coastal waters is a priority for the Coastal Acidification Networks (CANs), fostered by the Ocean Acidification Program around the country.  These networks bring together scientists, decision makers, fishermen and other stakeholders to identify and answer the most important questions about acidification and its effects in the region.


 

STORIES OF ADAPTATION

Research shows ocean acidification is spreading rapidly in the Arctic

Research shows ocean acidification is spreading rapidly in the Arctic

NOAA Oceanic and Atmospheric Research

Ocean acidification is spreading rapidly in the western Arctic Ocean in both area and depth, potentially affecting shellfish, other marine species in the food web, and communities that depend on these resources, according to new research published in Nature Climate Change by NOAA, Chinese marine scientists and other partners.

Tuesday, March 14, 2017
OCEAN ACIDIFICATION DISCUSSION

OCEAN ACIDIFICATION DISCUSSION

Ocean Action Hub, United Nations

The discussion is taking place during the preparatory process for The Ocean Conference in order to engage stakeholders in assessing the challenges and opportunities related to delivering on implementation of SDG14.3 aimed at minimizing and addressing the impacts of ocean acidification. The discussion runs from 9 – 30 March 2017.  Dr. Libby Jewett, Director of NOAA's Ocean Acidification Program, is participating as a moderator. 

Thursday, March 9, 2017

FY2017 Ocean Technology Transition Project

NOAA Integrated Ocean Observing System (IOOS)

The primary objective of IOOS’ Ocean Technology Transition Project (OTT) is to reduce the Research to Operations transition period for ocean observing, product development, and data management technologies for the ocean, coastal and Great Lakes. The term ‘Technologies’ includes: ocean, coastal, and Great Lakes sensors, Information Technology (data management, data visualization, model transition); platform enhancement, and technology modernization efforts. This objective is accomplished by investing in the transition of emerging and promising marine and Great Lakes observing technological capabilities from the mid to latter phases of research into operational status.

Wednesday, February 22, 2017
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Ocean Acidification: Building a Path Toward Adaptation in the Arctic

Ocean Acidification: Building a Path Toward Adaptation in the Arctic

NOAA Ocean Acidification Program

Scientists, economists, and stakeholders from all eight Arctic countries forge a path forward in adapting to ocean acidification in the Arctic

Arctic waters are rapidly changing. In the coming decades, these high-latitude waters will undergo significant shifts that could affect fish, shellfish, marine mammals, along with the livelihoods and well-being of communities dependent on these resources.

Wednesday, February 8, 2017
New tool helps oyster growers prepare for changing ocean chemistry

New tool helps oyster growers prepare for changing ocean chemistry

NOAA Research, Laura Newcomb

For Bill Mook, coastal acidification is one thing his oyster hatchery cannot afford to ignore. Mook Sea Farm depends on seawater from the Gulf of Maine pumped into a Quonset hut-style building where tiny oysters are grown in tanks. Mook sells these tiny oysters to other oyster farmers or transfers them to his oyster farm on the Damariscotta River where they grow large enough to sell to restaurants and markets on the East Coast.

Thursday, January 26, 2017
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