Use the search feature below to find Water Center supported products, including papers, videos, and fact sheets.Displaying 61 - 70 of 104
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
Following removal of the Wayne Road Dam on the Rouge River, researchers documented significant upstream expansion of the invasive round goby. The Wayne County Parks department, in partnership with Friends of the Rouge, is using this graphic as educational signage at public access points in Wayne County Parks. Using round goby as fishing bait is an issue of concern in these areas. See project summary: http://graham.umich.edu/activity/25123
Keywords: invasive species, round goby, Rouge River, fish, Great Lakes, infographic, University of Michigan Water Center
The Watershed graphic, part of a suite of graphics and a video, illustrates the magnitude of phosphorus and sediment input to Green Bay from the predominantly agricultural Fox River watershed. The graphics may be used separately or as a group.
See project summary: http://graham.umich.edu/activity/25121
See video (Green Bay Ecosystem Modeling): https://www.youtube.com/playlist?list=PLkpBjHvzRryrXo2uj3j3BHoTFtgpJjvjz
Keywords: Infographic, Green Bay, Great Lakes restoration, watershed, Wisconsin, University of Michigan Water Center
Saginaw Bay is a highly valued yet highly stressed system. To help ensure the right conservation practices are applied to the right places, in the right amount, and as efficiently as possible, the project team developed an innovative tool, known as the Saginaw Bay Optimization Model. This video describes how the Optimization Model produces solutions for implementing agricultural best management practices in the watershed.
See project summary: http://graham.umich.edu/activity/25115
Keywords: University of Michigan Water Center, Saginaw Bay Watershed, conservation practices, optmization model, agricultural best management practices
This video depicts and describes the Benefits of Collaborative Research. U-M Water Center-supported research team use a unique approach to developing research outputs that address real-world resource management and policy decisions. A collaborative research approach requires a clearly articulated and demonstrated policy or management need, and the integration of users of the research throughout the project development and research phases.
Keywords: University of Michigan Water Center, collaborative research, water science, water resource management and policy, co-production, science communications
The project team measured the ecological, social, and economic impacts of public private partnerships to restore wetlands in New York state. This video highlights the benefits of participating in these programs to landowners and surrounding communities.
Keywords: Wetland Restoration, New York State, Landowners, University of Michigan Water Center
This video describes how high nutrient and sediment loads delivered to Green Bay drive recurring summer hypoxia and algal blooms. It outlines the project team’s development of a linked model framework for simulating how the Green Bay system works, and how the Bay might respond to changes in climate, land use, and/or land management decisions.
Keywords: Green Bay, Wisconsin, hypoxia, algal blooms, University of Michigan Water Center, algae
Fluctuating lake levels adds complexity to responsible planning in coastal communities. This video describes what happens to the coast as lake levels fluctuate, the implications for coastal communities, and the techniques the project team developed to help communities plan with fluctuating lake levels in mind.
Keywords: Great Lakes water levels, coastal communities, fluctuation, University of Michigan Water Center
Living shorelines show great promise in coastal South Carolina as a tool to control erosion, increase habitat, and protect coastal areas from hazards both short-term (e.g., storms) and long-term (e.g., sea level rise). The South Carolina Department of Natural Resources and the Ashepoo, Combahee, and Edisto (ACE) Basin National Estuarine Research Reserve have constructed oyster-reef-based living shorelines adjacent to public land for 15 years, and private property owners are also showing interest in using living shorelines to prevent erosion. Current South Carolina permitting processes, however, do not address this emerging strategy, which serves as a barrier for private property owners wishing to pursue this approach.
Blue carbon storage—carbon sequestration in coastal wetlands—can help coastal managers and policymakers achieve broader wetlands management, restoration, and conservation goals, in part by securing payment for carbon credits. The Waquoit Bay National Estuarine Research Reserve has been at the forefront of blue carbon research, working with end users to provide the information and tools needed to bring blue carbon projects to the carbon market. While end users are becoming more interested in the opportunities that carbon markets present, they are limited by uncertainties, particularly the potential transaction costs associated with bringing a wetland restoration project to market.