Center for Geospatial Intelligence and Environmental Security

Welcome to the Center for Geospatial Intelligence and Environmental Security
Our Mission
The Center for Geospatial Intelligence and Environmental Security (CGIES) was established in 2019 at Kentucky State University with support from the NSF-HBCU-UP Grant Initiative. The Center conducts cutting-edge, transdisciplinary research and education on environmental stewardship, agroecosystem change, and the application of GIS and remote sensing to advance understanding of the human-environment-ecosystem relationship in Kentucky. Specifically, the CGIES strengthens environmental resilience and ecosystem sustainability through advanced geospatial science, remote sensing, unmanned aerial systems (UAS), lidar technologies, and integrated field-based data collection and monitoring. The Center develops high-impact graduate thesis research on environmental intelligence to support ecosystem restoration, natural resource protection, alternative land management, and the study of extreme-weather impacts, particularly in environmentally vulnerable and economically dependent regions, such as the coal-dominant regions of Eastern Kentucky.

Overview
(1) POWER-COE for Workforce Development and Land Restoration
(2) Rural Business Development Program (RBDG)
(3) STEM-NextGEN Programs
(4) KSU's Appalachian Land Reclamation Research and Education Initiative (KSU ALRREI) Project
Team
Grants
Research Projects
Publications
News
Check out what's happening!
Presentations
Lab Activities
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 comparisons.
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 success 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 reducing land degradation.
4) Strengthen 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 development through student training, certificate courses, STEM
programs, and applied research.
Provide hands-on training for students in GIS, remote sensing, UAV/lidar data processing, field sampling, geospatial modelling, and certificate courses on GIS/remote sensing and climate change studies.
6) Human-environment vulnerability assessments
Conduct research that connects 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
Strengthen 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.


STEM URA Experience


