This website was developed by a 2017 Science Transfer project team to provide stakeholders along the Mississippi-Alabama coast with up-to-date data on how human wastewater affects water quality and tangible recommendations for improving it.

This website contains information and resources from a 2012 Collaborative Research project that sought to reduce the vulnerabilities of Maryland's Deal Island Peninsula area to the impacts of climate change by creating partnerships between communities, decision-makers, and scientists.

This geodatabase contains GIS layers that illustrate the distribution of existing wetlands and identify locations where restoration is likely to have the greatest positive environmental impact in Douglas County, WI.

This website contains information and resources related to a 2013 Collaborative Research project studying sediment dynamics in tidal marshes in San Francisco Bay.

This article, published in Sustainability in 2018, characterizes the boat wake climate in Florida's Intracoastal Waterway, assesses the area's bathymetry, and anticipates the effects of experimental living shorelines (natural breakwall and oyster restoration structures) on facilitating sediment deposition and slowing vegetation retreat.

The Communities, Lands & Waterways Data Source is an encyclopedic compilation of all available data describing the socioeconomic and environmental conditions in the Coos Bay area.

This article describes a 2013 Collaborative Research project in Exeter, NH that studied adaptive governance and climate change adaptation planning by evaluating stakeholder involvement in a local institutional setting.

This website, created as part of a 2017 Collaborative Research project, describes a pilot program led by the University of New Hampshire and the NERRS to develop eDNA sample collection and analysis protocols.

This website contains information about and products stemming from a 2018 salt marsh resilience workshop hosted by the New England reserves.

This paper, published in Biological Conservation, describes an innovative approach developed by the NERRS to evaluate the ability of tidal marshes to thrive as sea levels rise.