PROF. S.A. ALIU

Conventional heat exchangers face a fundamental trade-off between thermal effectiveness and hydraulic performance. Triply Periodic Minimal Surfaces (TPMS), enabled by Additive Manufacturing, present a promising solution, offering high surface-to-volume ratios and complex internal geometries that promote enhanced flow mixing and heat transfer. This research details the design and numerical analysis of a heat exchanger utilizing a Gyroid TPMS core. The primary objective was to assess its
thermal-hydraulic performance using Computational Fluid Dynamics (CFD) and benchmark it against a conventional plate-type exchanger.

This report provides a thorough examination of optimizing wind turbine blade design to enhance energy capture and blade efficiency. The study delves into innovative design strategies, computational modelling techniques, and advanced optimization algorithms to maximize blade performance. Through numerical simulations, parametric studies, and sensitivity analyses, the research aims to pinpoint key design parameters that
significantly influence energy capture and blade efficiency. The results underscore the critical roles of aerodynamic performance, structural integrity, and material selection in optimizing wind turbine blade design. By utilizing cutting-edge tools and methodologies, the study showcases how incorporating advanced technologies can lead to significant enhancements in energy production and overall turbine performance. The
insights gleaned from this research have the potential to shape future advancements in wind energy technology, fostering more efficient and sustainable renewable energy solutions.