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Mark French

Professor Term

Speed School of Engineering

Orcid identifier0000-0002-5072-1215
  • Professor Term
    Speed School of Engineering

SPONSORED PROJECTS

Civil Engineering, Hydraulics, Hydrology, Water Resources

Published over 35 technical articles in peer-reviewed engineering journals and numerous conference abstracts and presentations;  prepared and delivered more than 15 presentations of technical engineering research findings at professional conferences to audiences including research faculty, professional engineers and the public; developed research proposals for funding requests submitted to funding agencies such as National Science Foundation, National Center for Atmospheric Research, Environmental Protection Agency, and NASA.  Research proposals include technical description of the work, time-line project schedules, deliverable list of products, budget details and narrative, and quality assurance and control summary.

SPONSORED PROJECTS

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Showing page 1, sponsored projects 1 to 10 of 10
GRANT
National Science Foundation1 Sep 2024 - 31 Aug 2028
ABSTRACT Flash floods impact communities throughout the US each year, causing loss of life, property, and livelihoods. Rural communities, especially those in the economically disadvantaged Appalachian region, are particularly vulnerable to flash floods. This, in part, is due to the limited infrastructure to understand, predict, and prepare for flash floods in these regions. Additionally, the understanding of how climate change and landscape alterations affect flash floods is limited. To address these challenges, the project will bring together civil engineers, environmental scientists, and social scientists from the University of Louisville, West Virginia University, University of Kentucky, Marshall University, and Eastern Kentucky University working alongside community research partners from the region. A key outcome will be an improved ability to understand, predict, and prepare for flash floods under climate change. This will be achieved with new models, strategically placed sensors, regional flood analyses, and insight from those most affected by flash floods, community members. Researchers and community members will work together to identify specific issues related to flash floods, such as flooding knickpoints and locations where models may perform poorly. By integrating engineering, environmental science, and social science, this project will create solutions tailored to community goals, serving as a model for resilience planning in vulnerable communities across the US. The project's workforce development plan will guide over 500 underrepresented middle and high school students in the Appalachian region through college and into their careers. Activities will include field experiences, tree plantings, and environmental sensor trainings. The project will also connect communities across Appalachia to address future climate change through knowledge exchange workshops. This plan will be put into action with the help of community partners throughout Appalachia, including local citizens, non-profit organizations, and watershed associations. Flash flooding has caused the highest number of fatalities of any flood type in the last two decades. Communities in central Appalachia are especially vulnerable to flash floods. The goal of this project is to gain fundamental knowledge of flash flooding under climate change and mitigate its impacts in vulnerable rural communities by advancing research capacity, interdisciplinary collaboration, and scientific literacy across Kentucky and West Virginia EPSCoR jurisdictions. Using increased hydrologic research infrastructure and an evidence-based community engagement model, the project will integrate three research tasks to meet this goal: 1) advance the hydrologic sciences to understand controls of flash floods in disturbed and forested stream systems; 2) facilitate community-engaged research to increase resilience and flash flood technology uptake; and 3) develop a community-led science model for increasing knowledge of flash floods. The project will couple catchment-scale hydrologic models (process-based, machine learning), on-the-ground data collection, regional flooding analysis, and hydrologic sensing technology with evidence-based participatory action research to co-create new flash flood knowledge, tools, technology, and subsequently, tailored solutions. The project will provide insight into how climate change manifests in heavily disturbed landscapes across the US; how to measure, monitor, model, and predict flash flooding with sufficient time for communities to respond in understudied and infrequently monitored headwater systems; what current and future flash flood risks look like in stream-adjacent communities like those found throughout central Appalachia; and how researchers, community members, and government and industry partners can co-produce knowledge, tools, and technology that align with community goals. This project will build a novel collaboration among university, community, government, and industry constituencies that will serve as a model for community resilience planning and advancing the knowledge-to-action paradigm. By connecting communities through the creation of micro-region groups and networks, the project will create more diverse and connected engagement across Appalachia to address climate change. This project is funded by the EPSCoR Research Infrastructure Improvement-Focused EPSCoR Collaborations (RII-FEC) program. The RII-FEC program builds inter-jurisdictional collaborative teams of EPSCoR investigators in focus areas consistent with the NSF Strategic Plan. RII-FEC projects include researchers from at least two EPSCoR eligible jurisdictions with complementary expertise and resources necessary to address challenges, which neither party could address as well or as rapidly independently.
GRANT
National Science Foundation1 Jun 2024 - 30 Jun 2029
ABSTRACT The Commonwealth of Kentucky faces mounting threats from global environmental change and natural hazards, including extreme weather events, floods, droughts, and landslides. This "Climate Resilience through Multidisciplinary Big Data Learning, Prediction & Building Response Systems" (CLIMBS) project aims to advance the fields of climate science, geohazards engineering, and disaster management to facilitate improved sustainability, resilience, and adaptative engineering to climate change. CLIMBS research will target underserved communities in eastern Kentucky, an Appalachian region that is especially vulnerable to climate change. The research will produce a holistic understanding of climate change processes in Kentucky across multiple spatial and temporal scales, determine the influence of climate change on geohazards that threaten the commonwealth, and establish an enhanced "tools and technology framework" for climate change mitigation and community disaster response. Results of this research will benefit Kentucky's key industries of manufacturing, data analytics, energy transition, and engineering, and help train a science and engineering workforce that will allow smaller industries to flourish. CLIMBS will be administered by the University of Kentucky in collaboration with seven other institutions: University of Louisville, Eastern Kentucky University, Northern Kentucky University, Western Kentucky University, Morehead State University, Murray State University, and Thomas More College. CLIMBS seeks to address major knowledge gaps that surround: (i) climate change processes affecting Kentucky; (ii) patterns in climate change impacts; (iii) controls on severe weather and extreme events; (iv) climate triggers, thresholds, and feedbacks that result in flood and landslide hazards; and (v) climate-smart sustainable design and resilience engineering in the built environment. To address these issues, CLIMBS will acquire the contemporary atmospheric and paleoenvironmental data needed to assess the causes, patterns, and characteristics of regional climate dynamics (to include extreme weather) across space and time, as well as facilitate predictions for the impacts of climate change on Kentucky's critical zone and water resources. Researchers will pursue integrative, long-term environmental monitoring experiments to develop the "big data" and cyberinfrastructure needed to quantify the processes, feedbacks, and threshold conditions that trigger floods and landslides, and establish instrumented watersheds and hillslope monitoring sites. Initial monitoring sites will be deployed in socio-economically vulnerable areas of eastern Kentucky, to bridge with project elements designed to improve education and outreach in Appalachia. Additionally, CLIMBS will analyze Kentucky's built environment and socio-behavioral systems, and use big data, artificial intelligence/machine learning, and computational tools to evaluate vulnerabilities to climate change and improve real-time disaster detection, warning systems, and the response toolkit. Ten new faculty hires are planned in the first three years of the project. The core research program is well integrated with education, workforce development, and diversity plans that span academic, federal, commonwealth, and private sectors.
GRANT
Directorate for Geosciences1 Nov 2022 - 31 Oct 2023
People funded by this grant: Ghasemi-Fare O, French MN, Rockaway TD, Mahoney DT