Assistant Professor Rutgers University, New Jersey, United States
Abstract Submission: In this study, we employ Large Eddy Simulation (LES) to explore the dynamics of the ice-water boundary layer, with a focus on the turbulent flow structures and heat transfer mechanisms critical to the melting and freezing processes. LES provides a detailed resolution of large-scale turbulent eddies while capturing sub-grid scale interactions, offering a more accurate depiction of the boundary layer's complex behavior. Our results highlight the influence of buoyancy forces, shear stresses, and thermal gradients on the development of the boundary layer, revealing important insights into the mechanisms governing phase change at the ice-water interface. This research contributes to improving predictive models for natural ice systems, such as sea ice and glaciers, and has broader implications for engineering applications involving phase transitions and heat transfer. The findings enhance our understanding of ice-melt dynamics, which is crucial for both climate modeling and industrial processes.