Advancing geospatial inference, Bayesian spatial econometrics, and machine-learning-powered landscape epidemiology — turning location into actionable intelligence.
I am a doctoral researcher at the University of Cincinnati working at the intersection of Geospatial Data Science, Artificial Intelligence, and Environmental & Public Health. My work bridges spatial statistics, geographic information science, Spatial Epidemiology and GeoAI to understand how place, environment, and context shape human health, environmental and ecological outcomes.
My research focuses on developing advanced spatiotemporal and AI-driven approaches — including Bayesian hierarchical models, geospatial neural networks, and causal inference frameworks — to analyze environmental exposures and predict population-level health risks. I am particularly interested in geospatial AI and environmental health analytics, with applications in maternal and child health, environmental monitoring, and decision intelligence. Through this work, I aim to generate actionable, data-driven insights that inform public health interventions and policy across both high- and low-resource settings.
Beyond research, I am passionate about mentoring emerging Geospatial AI researchers and fostering open science communities in GeoML. I am actively involved with the Digital Epidemiology Laboratory and continuously seek opportunities to contribute to collaborative, mission-driven work with real-world impact. I am open to collaborating with organizations such as the CDC, municipal governments, NGA-affiliated research labs, and international partners to develop spatial decision-support systems.
Three convergent threads — each tackling a different scale of the question: how does location shape outcome?
Bayesian hierarchical models for disease burden mapping with explicit spatial autocorrelation across heterogeneous landscapes.
Read MoreFusing graph neural networks with kriging to deliver uncertainty-quantified environmental exposure maps.
Read MoreCausal identification of place-based policy effects with explicit spatial spillovers and quasi-experimental designs.
Read MoreA curated selection of journal articles, conference proceedings, and preprints — full bibliography available on Google Scholar.
A comprehensive arsenal spanning classical geostatistics, modern machine learning, and causal inference — built for production-grade spatial intelligence.
Kriging (ordinary, universal, co-kriging), variogram modeling, spatial interpolation, INLA-SPDE.
CAR/SAR models, MCMC via Stan, INLA, random effects for spatially structured data.
Google Earth Engine, ArcGIS Pro, QGIS, satellite classification, land-cover change detection.
Graph neural networks, geographically weighted forests, spatially regularized XGBoost.
Spatial DiD, GWR, spatial instrumental variables, propensity scoring with spatial matching.
R (sf, spdep, R-INLA, terra), Python (GeoPandas, PyTorch Geometric, PySAL), Stan, Julia.
Containerized workflows via Docker, version-controlled pipelines, RMarkdown/Quarto literate programming.
ggplot2, tmap, Leaflet, Mapbox GL, D3.js — publication-quality maps and dashboards.
I welcome inquiries from researchers, policy analysts, GEOINT practitioners, and industry partners interested in spatially explicit quantitative methods. Whether collaboration, consulting, or thesis support — reach out.
For collaboration, consulting, or general inquiries — typical reply within 48 hours.