Recent research:
A cohesive research profile emerges from multiple CFD-based investigations into heat transfer management and aerodynamic performance in electronic cooling and air-moving devices. The work leverages ANSYS Fluent-CFD to model forced convection and energy–momentum conservation with two-equation turbulence models (including RNG k-epsilon). Across studies, the focus is on heat sinks for electronics (circular and multi-fin configurations) and centrifugal fans, aiming to understand how exposure time, base temperatures, air velocity, fin geometry, and operating speed influence temperature distribution, heat transfer stability, and system efficiency. Key insights include: longer exposure to high temperatures and higher air flow rates amplify fin and surrounding air temperature fluctuations before stabilization around the eighth second, while higher flow can enhance heat exchange and overall cooling effectiveness; numerically observed temperature gradients, central-vs-edge differences, and performance trends across fin arrangements provide guidance for thermal design. The work also demonstrates design and numerical evaluation of a centrifugal fan with backward-curved blades, achieving specified air capacity, pressure drop, and efficiency targets via CFD analysis and blade geometry-informed Euler concepts. Overall, the research advances understanding of how geometry, operating conditions, and turbulence modeling affect cooling performance in compact electronic assemblies.

Key Topics:

• Materials Science, Manufacturing & Additive/Subtractive Processes
• Standards, Validation, Benchmarks & Measurement Best-Practice
• Computational Fluid Dynamics (CFD) in electronic cooling
• Forced convection heat transfer and turbulence modeling (RNG k-epsilon)
• Heat sink design and performance optimization
• Centrifugal fans and blade geometry optimization