This interim report summarizes a community meeting hosted by a 2013 Collaborative Research project team in Exeter, New Hampshire about how to prepare the town for a changing climate.

This document outlines the strategy developed by a 2012 Collaborative Research project team to achieve a complete community approach for mitigating the negative effects associated with increasing impervious cover and stormwater runoff in coastal New Hampshire.

This fact sheet describes the advantages of incorporating climate change projections into the design of stormwater management systems and discusses the benefits of using green infrastructure and low impact development to adapt to climate change.

This guide removes barriers to low impact development implementation in South Carolina by providing engineering tools, planning guidance, and case study examples that are relevant to the South Carolina coastal zone.

This project overview describes a 2013 Collaborative Research project that developed a model climate adaptation plan for Exeter, New Hampshire to help decision-makers address climate change impacts.

This project overview describes a 2013 Collaborative Research project that developed a protocol to accurately measure suspended sediment concentrations in tidal marshes, enhancing understanding of marsh accretion and informing marsh conservation and restoration.

This project overview describes a 2012 Collaborative Research project that worked to address barriers preventing communities in South Carolina from embracing low-impact development strategies.

This project overview describes a 2013 Collaborative Research project that refined and piloted the Climate Change Vulnerability Assessment Tool for Coastal Habitats ("CCVATCH").

This project overview describes a 2012 Collaborative Research project in which Great Bay Reserve and other partners helped New Hampshire communities adopt green infrastructure techniques to more effectively manage stormwater.

This project overview describes a 2010 Collaborative Research project that investigated how swashes collect, transform, and export nutrients and organic matter that fuel hypoxia in Myrtle Beach's coastal waters.