Water Center Products
Use the search feature below to find Water Center supported products, including papers, videos, and fact sheets. Alternatively, you may search/browse products across the entire institute.Displaying 61 - 70 of 112
Green infrastructure (GI) systems are installed in strategic locations to capture stormwater runoff after a rain event. GI projects are placed in locations to slow stormwater flows to streams, reduce flooding or fast currents that erode stream banks, or filter pollutants from parking lots or roadways. This fact sheet highlights how GI projects such as rain gardens, permeable pavement, and tree filters are part of a stormwater runoff toolkit for local decision-makers.
With streams becoming one of the most endangered ecosystems on the planet, we need restoration practitioners more than ever. Stream restoration often requires the collaboration of engineers, ecologists, and physical scientists. The science team makes decisions based on the weight of evidence of science and important social and environmental values guiding the restoration effort. Faculty members at the University of Michigan (U-M) have revised a stream restoration engineering course to bring together U-M students and faculty to study stream restoration in an interdisciplinary way. This fact sheet provides a summary about how a new course immerses students in this multidisciplinary, problem-driven profession.
Keywords: Stream Restoration, social and environmental values, engineering, Huron River, University of Michigan Water Center
This video describes how and why scientists use models and the benefits of using a multiple model approach for lake, ecosystem, and climate applications. A multiple model approach increases confidence in model results. Using this approach, scientists capture the range of potential outcomes while smoothing out extremes that might be present in any one model. U-M Water Center scientists used the multiple model approach to evaluate how the Maumee River watershed and Lake Erie water quality may be improved. In this case, scientists analyzed nutrient reduction scenarios for the Maumee River watershed and used results from multiple models to inform the development of new Lake Erie phosphorus targets under Annex 4 of the Great Lakes Water Quality Agreement.
Keywords: University of Michigan Water Center, multiple model approach, watershed model, ecosystem model, climate model, Lake Erie, nutrients, Great Lakes
This project will support the development of new, innovative visitor displays at three national estuarine research reserves - the Guana Tolomato Matanzas, Mission-Aransas, and Delaware Reserves. The reserves will partner with students at the University of Delaware to produce gesture controlled, educational computer games that promote interactive, learning opportunities. The experiential games will be designed for use on interactive screens that will be available for public use in each reserve’s exhibit hall. This project will provide communities with relevant, accessible science while offering civic-minded solutions and resources that encourage participants to take conservation-based action promoting ecosystem resilience.
Keywords: Guana Tolomato Matanzas, Mission-Aransas, and Delaware Reserves, University of Delaware, students, learning opportunities
Sea-level rise and extreme weather events exacerbated by climate change currently impact Maine’s coastline and are anticipated to increase in frequency and strength. Beach-based businesses, a powerful economic engine for Maine, are generally little prepared for storm surge and coastal flooding. Yet lessons learned from previous disasters underscore how important the recovery of businesses is to the overall recovery of a region’s economy.
This fact sheet provides an overview of a project that makes data and information compiled through the Chesapeake Bay Sentinel Site Cooperative readily available to ninth-grade earth science teachers to use in their classrooms and increase climate literacy. The project builds on a previous NOAA Bay Watershed Education and Training project titled, “Climate Education for a Changing Bay (CECB),” which provided watershed educational experiences integrated into the classroom curriculum for ninth-grade students in Gloucester County and Mathews County, Virginia.
Through the current project, the Chesapeake Bay-Virginia Reserve is building on the strengths of the previous years of CECB to extend the reach into Middlesex County, while developing an alumni program to support the program in Gloucester and Mathews. All three counties lie within a region experiencing relative rates of sea level rise greater than the global average.
This factsheet provides an overview of a project focusing on the development and dissemination of communications products based on a recently conducted national synthesis of NERR Sentinel Site data. This synthesis applied indices of resilience to sea level rise to marshes in 16 National Estuarine Research Reserves across the United States to assess regional and national patterns in resilience. Initial results reveal strong contrasts for individual metrics across reserves, with many marshes receiving intermediate scores and a few sites at very high risk. This work not only represents the first national assessment of marsh resilience to sea level rise but also the first development and application of multi-metric indices.
Climate change is having an impact on salt marshes in the southeastern United States through sea level rise, increases in air and water temperature, changes in precipitation patterns, and an increase in storm event intensity. However, the degree and intensity of these impacts vary from marsh to marsh, depending on local environmental conditions. Understanding this local variability is critical when making management decisions. Estuarine reserves in North and South Carolina are seeking to improve local understanding of climate change effects on southeastern marshes, and provide decision makers with the information and skills they need to address these vulnerabilities, by using the Climate Change Vulnerability Assessment Tool for Coastal Habitats, or CCVATCH.
The Soil and Water Assessment Tool (SWAT) is a spatially referenced watershed model used to simulate the impacts of land use, land management, and climate on water quantity and quality. This graphic illustrates the general processes associated with developing and applying SWAT models. Learn more: SWAT FAQ
This graphic illustrates how remote sensing, paired with field surveys, fits into the adaptive management cycle required for the treatment and control of the invasive wetland plant Phragmites. These techniques were applied in Saginaw Bay and Green Bay. Remote sensing offers managers a “bird’s eye” view, and enables a more complete understanding of the extent of invasion, assessment of control efforts, and supports strategic decisions about where to focus limited resources within a site and across a larger landscape.
See project summary: http://graham.umich.edu/activity/25248
Keywords: Infographic, Laura Bourgeau-Chavez, Phragmites Management, Invasive Species, wetland plant, University of Michigan Water Center