Wind turbine analysis utilizes advanced computational fluid dynamics (CFD) and structural mechanics to optimize blade aerodynamics and assess structural integrity. This research focuses on understanding wake interactions, maximizing power generation, and minimizing fatigue loads under complex atmospheric conditions to enhance overall turbine performance and durability.

Research in solar cells centers on improving photovoltaic efficiency through advanced materials science and effective thermal management. By modeling the optical and thermo-mechanical behavior of semiconductor materials and tracking heat dissipation, researchers strive to maximize energy conversion rates and mitigate heat-induced degradation in solar arrays.

Wave energy research investigates the complex fluid-structure interactions required to harness the kinetic power of ocean surface waves. Utilizing advanced multiphase simulations, researchers focus on optimizing the hydrodynamic design of Wave Energy Converters (WECs) to maximize power extraction while ensuring structural survivability in harsh, highly dynamic marine environments.

Geothermal energy analysis involves the computational modeling of subsurface heat transfer and fluid flow within porous geological formations. By studying the thermal-hydraulics of geothermal reservoirs and optimizing the design of deep-earth heat exchanger systems, this field aims to improve the efficiency, stability, and long-term sustainability of geothermal energy extraction.