Through this project, a program was developed to train individuals within the Flint community to receive instruction to support community-lead training of residents on how to install, operate and maintain their faucet-mounted point-of-use filters.
That offered training to Flint residents interested in being trainers occurred during 2018, with the last training session being translated to and run by Genesee Health System employees.
Participated across the three sessions
The two most common filter brands are PUR and Brita. Even though both brands have similar modes of operation (filtration through activated carbon block), installation and operation is not the same between the two brands. The training uses a blend of manufacturer information and knowledge developed from research and experience with the devices to guide users on options for how to use and maintain the filters in a manner that meets user goals. Factors such as impact of use patterns on water quality and cost of flushing are considered and included in the training. This training module is designed to be translatable to other communities that are deploying point-of-use faucet-mounted filters to address water quality concerns, as a way to empower local users of the devices.
This program was developed to help empower community members by equipping them with information that would support safe and effective use of point-of-use filters in homes. The project was initiated when Ms. Carma Lewis from the Flint Action Coordinating Team and Elizabeth Burtch from Genesee Health System reached out to Professors Nancy Love (University of Michigan) and Shawn McElmurry (Wayne State University) to request their help in creating a training module for use by community organizations to train community members on proper installation, maintenance, and replacement of point-of-use water filters.
To date, over 150 Flint residents have been trained on the methods needed to train community members on how to use point of use water filters.
University of Michigan and Wayne State University students are now collaborating with the Genessee County Health Department and the Genessee Health system to develop complementary video that extends beyond manufacturer videos, and to provide translations (Spanish, sign language) that give multi-lingual access to the materials.
Using autonomous sensors and valves to create “smart” stormwater systems to reduce flooding forecasting, and improve water quality.
The MCFI will leverage research in water technology and work with stakeholders to translate research into practice, stimulate business growth and job creation.
The goal of this project is to develop a data-driven asset management framework that quantifies risk in the water distribution network for southeast Michigan.
The University of Michigan is developing a structural reliability framework to quantify the probability of failure of pipe segments throughout the GLWA system.
A PFAS treatment approach for groundwater using low-temperature plasma with a concentration phase
The Great Lakes Water Authority is looking for ways to rehabilitate large diameter water mains without actually having to dig up city streets.
Application of real-time sensing and dynamic control on existing wastewater infrastructure to reduce the frequency and volume of Combined Sewer Overflows.
Using big data, data mining, and artificial intelligence to improve performance of the highly advanced Grand Rapids Water Resource Recovery Facilities.
Limiting the volume of stormwater in the Detroit system to prevent untreated sewage from being released into the Detroit and Rouge Rivers.
Improving Benton Harbor’s aging water system using risk assessment and risk analysis techniques, as well as mobile sensors.
Investigating the use of cutting-edge molecular tools that characterize and optimize water quality process performance.
Optimizing phosphorus removal at Detroit’s water treatment facility, to keep it out of lakes and rivers.
Using wireless sensors to monitor water quality and flow conditions and to control drains to Ox Creek in Benton Harbor.
Using wearable-based technology to help seniors stay mobile and age in place, while avoiding exposure to falls and environmental risks or hazards.
The Urban Collaboratory is working with the USEPA and the Great Lakes Water Authority to remediate and restore the Rouge River.
Recommendations were developed to promote regional planning to ensure infrastructure investments are equitable and result in high-quality drinking water.
Robots are anticipated to make the global construction industry safer and more attractive to workers, easing a worker shortage in the United States.
While parks are designed and managed to generate community benefits, there remains a need for tools that can more rigorously measure how communities use parks.
The city of Benton Harbor wishes to transform Ox Creek into a residential, recreational and commercial centerpiece linking important segments of the community.
Mapping detailed geographies of digital access and exclusion across Detroit’s neighborhoods.
The project aims to reduce energy use of vehicular travels by incentivizing individual travelers to adjust travel choices and driving behaviors.
The Sensors in a Shoebox project focuses on empowering Detroit youth as agents of change for their city.
Using remote sensing and security camera data to better understand how people are using the Detroit RiverFront Conservancy public spaces.
Rethinking how transit infrastructure can expand access to food, health, learning, and mobility services by creating multimodal hubs.
The first in a series of health clinic prototypes that bring technology-enabled chronic health care monitoring to remote, underserved global populations.
Collecting travel data to help Benton Harbor improve travel options for residents, with the goal of increased employment participation and retention.
Borchardt and Glysson Collegiate Professor of Civil and Environmental Engineering
Dr. Nancy G. Love is the Borchardt and Glysson Collegiate Professor of Civil and Environmental Engineering at the University of Michigan. She previously served as chair of the Department of Civil and Environmental Engineering and as Associate Dean in the University of Michigan’s Rackham School of Graduate Studies. She previously taught at Virginia Tech.
Dr. Love’s research interests include water quality and environmental biotechnology. Specifically, she studies the fate of toxins and pharmaceuticals in wastewater, as well as the technologies that can be used to remove these chemical stressors.
Dr. Love holds a PhD in Environmental Systems Engineering from Clemson University (1994) and both a Masters of Science (1986) and a Bachelors of Science (1984) in Civil Engineering from the University of Illinois at Urbana-Champaign.
Associate Professor of Civil and Environmental Engineering, Wayne State University
Dr. Shawn P. McElmurry is an Associate Professor in the Department of Civil & Environmental Engineering at Wayne State University in Detroit. He received his PhD in Environmental Engineering from Michigan State University and is a licensed Professional Engineer. Since joining Wayne State he has received significant funding from the National Institutes of Health (NIH), and National Science Foundation (NSF), and State of Michigan and published more than 30 peer-reviewed journal articles. Dr. McElmurry teaches graduate and undergraduate courses focused on environmental engineering and water systems. His research aims to address fundamental gaps in understanding which inhibit sustainable development and adversely impact human health, with a special interest in water infrastructure. Recently, Dr. McElmurry’s work has focused on understanding the complex interactions between exposure to chemicals and pathogens in Flint’s municipal water system. He is co-leader of the Flint Area Community Health and Environment Partnership (FACHEP), a multi-institutional collaboration formed to evaluate associations between changes in Flint’s water system and adverse public health impacts. Building on lessons from Flint, Dr. McElmurry’s current focus is on how water and health systems learn and adapt to challenges, with the goal of enhanced system and community resilience.