Center for Geospatial Intelligence and Environmental Security
Our Mission
The Center for Geospatial Intelligence and Environmental Security is dedicated to strengthening environmental resilience and ecosystem sustainability through advanced geospatial science, remote sensing, unmanned aerial systems (UAS), lidar technologies, and integrated field-based monitoring. The Center develops high-quality environmental intelligence to support land restoration, natural resource protection, and climate adaptation, particularly in environmentally vulnerable and economically dependent regions such as the coal-dominant regions of Eastern Kentucky.
By integrating satellite, airborne, and in-situ datasets, the Center generates actionable indicators of soil and water quality, vegetation recovery, microclimate variability, and land degradation processes. Our work supports long-term monitoring of reclaimed mine sites, improves the assessment of restoration effectiveness, and provides geospatial decision tools for stakeholders, including land managers, researchers, and communities.
In addition to its research mission, the Center promotes workforce development and education through hands-on student training, interdisciplinary collaborations, and partnerships that improve science communication and community preparedness for extreme weather and environmental risks.

What we do
1) Develop a long-term environmental benchmark database
Establish a standardized geospatial database of soil and water quality for reclaimed mine sites and reference ecosystems to support long term monitoring and comparisions.
2) Advanced aerial monitoring of vegetation recovery and ecosystem health
Use satellite data, UAV multispectral imagery, and lidar-derived indices to quantify vegetation dynamics, growth patterns, biomass trends, and reclamation sucess across disturbed landscapes.
3) Quantify soil erosion and land degradation risks
Apply geospatial modelling approaches such as USLE, RUSLE, SWAT etc frameworks to estimate soil loss, sediment movement and erosion hotspots and evaluate the effectiveness of reclamation strategies in reduce land degradation
4) Stregthen microclimate monitoring and ecosystem exchange observations
Implement continuous monitoring of CO2 and water vapor exchange, precipitation, wind, soil moisture, radiation and humidity to support long-term studies of CO2 exchange characterization, regrowth phenology, biomass-productivity, water, vegetation, and carbon balance, remotely sensed data validation, and other research and education activities with local high schools, stakeholders, and agencies.
5) Promote workforce dvelopment through student training, certificate courses, STEM
program and applied research
Provide hands-on training for students, in GIS, remote sensing, UAV/lidar data processing, field sampling, geospatial modelling and cerficate courses on GIS/ remote sensing and climate change studies.
6) Human-environment vulnerability assessments
Conduct research that connect environmental change with community vulnerability and equity related outcomes to improve inclusive planning, and targeted risk reduction in high-impact regions.
7) Interdisciplinary partnerships and research collaborations
Stregthen collaborations with universities, agencies, high schools, and community stakeholders to support data sharing, research translation, and scalable environment solutions across watersheds and reclaimed regions
8) Produce research outputs and publish evidence-based solutions
Generate high quality scientific outputs including peer-reviewed publications, and conference presentations that strengthen the credibility and impact of the research projects.

Overview
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Team
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Grants
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Research Projects
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Publications
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News
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Presentations
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STEM URA Experience


