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Our research focuses on turbulent flow physics across complex engineering and environmental systems. Through experiments, numerical simulations (DNS & LES), and data-driven approaches, we investigate flow mechanisms to advance sustainable energy, environmental flows, bio-inspired surfaces, urban air mobility, and aerospace systems
Resilient & Adaptive Energy Systems
Resilient & Adaptive Energy Systems
We investigate the flow physics governing distributed energy systems using real-time measurements, high-fidelity simulations, and system-level modeling.
Specifically, we focus on urban energy harvesting, various energy resource integration, solar-farm flow interactions, and adaptive microgrid systems.
Bio-Inspired Surfaces for Flow Control & Noise Reduction
Bio-Inspired Surfaces for Flow Control & Noise Reduction
We study the flow physics of bio-inspired structures based on shark skin and their interaction with the turbulent boundary layers.
Our research explores engineered surfaces for flow control, aerodynamic noise reduction, low-altitude flight operations, anti-biofouling, and icing mitigation.
Sustainable & Resilient Urban Environments
Sustainable & Resilient Urban Environments
We study urban flow physics, pollutant transport, and resource dynamics using real-time sensing, high-fidelity simulations, and data-driven models.
Our research combines real-time data with flow dynamics to develop pollutant mitigation strategies and predictive digital twins for cleaner and more resilient cities.
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