My research centers on urban boundary-layer meteorology, environmental and engineering fluid mechanics, and atmospheric pollution and exposure. I am particularly interested in urban micrometeorology and turbulence-resolving numerical modeling, with a focus on the complex interactions between bluff bodies and turbulent flows. A core theme in my work is understanding boundary-layer dynamics in urban environments and their implications for wind comfort, air quality, and exposure. I actively explore topics such as urban wind hazards and heat stress, pollutant dispersion and human exposure, outdoor ventilation under complex micrometeorological conditions, and the thermophysical modeling of urban systems. My work often involves coupling mesoscale atmospheric models with large-eddy simulations (LES) to capture multiscale phenomena, and applying computational fluid dynamics (CFD) in both research and engineering practice, with the goal of informing responses to the growing challenges of climate change and rapid urbanization.