Conducted detailed thermal performance and conjugate heat transfer (CHT) simulations for various heat exchanger configurations, optimizing design for enhanced heat transfer efficiency.
Performed advanced combustion analysis for methane-air mixtures, including pre-mixed combustion, pollutant formation, and radiation modeling in combustion chambers.
Simulated the aerodynamics and drag reduction for UAVs and aircraft wings, leading to optimized performance and fuel efficiency for aerospace structures.
Performed hydrodynamic analysis for vessel hulls to minimize drag and optimize propeller thrust, improving ship performance and reducing fuel consumption.
Modeled the interaction between fluids and solid structures, ensuring structural integrity and performance under various fluid flow conditions (marine structures, pipelines, etc.).
Conducted airflow analysis for buildings and enclosed environments, optimizing ventilation systems for improved air quality and energy efficiency.
Modeled dispersed phase flows for spraying systems, accounting for wet combustion particles in industrial processes and improving combustion efficiency.
Modeled Proton Exchange Membrane Fuel Cells (PEMFC) and electrolysis systems for renewable energy applications, enhancing energy conversion efficiency.
Performed CFD analysis for axial, centrifugal, twin-screw, and lobe pumps, enhancing efficiency and ensuring optimal fluid dynamics in pumping systems.
Simulated gas-solid separation processes within fluid catalytic cracking (FCC) risers, improving separation efficiency and system throughput.
Conducted erosion simulations for components exposed to abrasive flows, including turbines, pipelines, and U-bend pipes, identifying and mitigating erosion risks.
Modeled dense-discrete phase particle transport in pipelines, optimizing flow conditions to reduce particle accumulation and system wear.
Modeled and optimized the performance of renewable energy systems, including 3-blade wind turbines,Vertical Axis turbine and solar desalination plants.
Developed custom User-Defined Functions (UDF) and dynamic mesh models for complex turbomachinery simulations, enhancing mesh adaptation and fluid interaction accuracy.