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Our expertise lies in water resource engineering, estimating hydrological extremes, and designing resilient water infrastructure that responds to natural and anthropogenic changes in watershed systems. Using advanced numerical tools and innovative methods, we address practical engineering challenges in water resource management
Key research themes
Key research themes
Modeling of Hydrologic Perturbations
Modeling of Hydrologic Perturbations
We use a blend of data-driven approaches and process-based hydrological models to quantify how various hydrological perturbations, such as changes in land use, meteorological patterns, and wildfires, impact water quantity and quality.
We use a blend of data-driven approaches and process-based hydrological models to quantify how various hydrological perturbations, such as changes in land use, meteorological patterns, and wildfires, impact water quantity and quality.
Design of Water Resilient Infrastructure
Design of Water Resilient Infrastructure
We developed numerical models of water-related infrastructure, including sewer systems, reservoirs, and detention ponds, among others. Our research addresses the complex interactions between these systems, human dynamics, and climate variability to improve their response to climate-induced challenges.
We developed numerical models of water-related infrastructure, including sewer systems, reservoirs, and detention ponds, among others. Our research addresses the complex interactions between these systems, human dynamics, and climate variability to improve their response to climate-induced challenges.
Estimation of Extreme Flood Events
Estimation of Extreme Flood Events
We use and develop state-of-the-art techniques, incorporating radar rainfall data, stochastic modeling, and process-based hydrological models to predict and quantify the frequency and magnitude of extreme flood events. We aim to enhance urban infrastructure resilience and reduce population exposure to flooding.
We use and develop state-of-the-art techniques, incorporating radar rainfall data, stochastic modeling, and process-based hydrological models to predict and quantify the frequency and magnitude of extreme flood events. We aim to enhance urban infrastructure resilience and reduce population exposure to flooding.
Modeling Groundwater and River Corridor Interactions
Modeling Groundwater and River Corridor Interactions
We develop efficient numerical tools to represent groundwater fluxes, by focusing on the interactions between groundwater and river corridors and their impact on biogeochemistry. This helps assess the effects of land-use changes, weather variations, and wildfires on water quality and ecosystem health.
We develop efficient numerical tools to represent groundwater fluxes, by focusing on the interactions between groundwater and river corridors and their impact on biogeochemistry. This helps assess the effects of land-use changes, weather variations, and wildfires on water quality and ecosystem health.
Interested in pursuing a Ph.D. in Water Resources and eager to contribute to sustainable and resilient community solutions? Check the admission requirements for our PhD program here, and please send your CV and a motivation letter to Prof. Gabriel Perez at gabriel.perez_mesa@okstate.edu.
Interested in pursuing a Ph.D. in Water Resources and eager to contribute to sustainable and resilient community solutions? Check the admission requirements for our PhD program here, and please send your CV and a motivation letter to Prof. Gabriel Perez at gabriel.perez_mesa@okstate.edu.
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