Deadline Date: 31 December 2026
The rapid evolution of high-flux energy systems and renewable technologies has made sophisticated thermal management a global priority. This Special Issue explores the intersection of theoretical thermo-hydraulics and practical engineering, showcasing how Computational Fluid Dynamics (CFD) optimizes the performance of next-generation infrastructure. As thermal loads increase, CFD has become the definitive tool for predicting fluid behavior and heat exchange efficiency where traditional experimental methods face physical constraints.
The scope of this issue focuses on the integration of CFD with diverse thermal solutions. Key interests include the thermal regulation of renewable energy components, the non-linear dynamics of Phase Change Materials (PCM) within energy storage, and the high-efficiency transport mechanisms of heat pipes. Additionally, we seek to explore the operational optimization of heat pump cycles, PV panel cooling strategies, and advanced cooling across industrial applications. By bridging the gap between numerical simulation and physical application, this collection aims to showcase how CFD can accelerate the development of sustainable energy systems.
By compiling original research and comprehensive reviews, this Special Issue provides a forum for innovative numerical frameworks and validation studies. While focusing on these specific areas, we also welcome manuscripts on all other subjects related to heat transfer, including conduction, convection, radiation, and multi-phase flow in various engineering contexts. Our goal is to highlight how computational modeling reduces energy waste and improves system reliability, providing a roadmap for researchers using simulation to drive the transition toward optimized thermal management.
Editorial board
