These slideshows, originally presented at a 2013 symposium hosted by Waquoit Bay Reserve, explore the different ways that salt marsh ecosystems are valued in the Northeast, with an emphasis on carbon and nitrogen cycling in salt marshes and economic valuation of ecosystem services.

This four-part video series gives an overview of the 2011 Collaborative Research project, "Bringing Wetlands to Market," discussing the project's field research, collaborative processes, and tools developed.

This high school STEM curriculum module, created as part of the project Bringing Wetlands to Market Phase 1: Nitrogen and Coastal Blue Carbon, examine the relationship between climate change impacts and carbon storage in New England salt marsh.

This webinar, which originally aired on December 12, 2013, discusses the Tijuana River Reserve's collaborative efforts to develop a vulnerability assessment that informs an adaptation strategy to address sea level rise and riverine flooding.

Southern California ’s coastal environments are under intense development pressure. In the Tijuana River Valley, this pressure translates into the fragmentation and loss of coastal wetlands that provide invaluable services, such as water quality protection.

This project overview describes a 2011 Collaborative Research project that examined the relationship between salt marshes, climate change, and nitrogen pollution and developed tools to leverage the “blue carbon ” stored in wetlands to achieve broader management goals.

This project overview describes a 2012 Collaborative Research project that developed a decision-making framework and tools to guide coastal wetland recovery and management in Southern California.

This project overview describes a 2018 Science Transfer project that is mapping carbon stores in Kenai Peninsula wetlands and exploring opportunities for engaging local stakeholders in valuing wetlands.

This infographic was developed by the Buffer Options for the Bay project and depicts the minimum recommended buffer widths for various buffer functions.

The health of the Great Bay Estuary is strongly influenced by stressors from across the watershed. Seven rivers flow into the estuary, which is recessed 15 miles from the Atlantic Ocean.