My research is strongly driven by real world engineering and scientific challenges. Rather than developing computational methods in isolation, I focus on building scalable numerical frameworks, simulation technologies, and software tools that can address practical problems across multiple disciplines. These application areas represent the domains where my work in computational mechanics, high performance computing, optimization, machine learning, and scientific software development can create meaningful scientific, industrial, and societal impact.
Description
Large-scale simulation of glacier fracture, crevasse propagation, ice-sheet dynamics, and ice-rock interaction for climate and geophysical research.
My Work in This Area
Developing scalable adaptive phase-field fracture frameworks for glacier crevasse evolution, ice-rock cliff failures, and cloud-native computational glaciology workflows using FEniCS and HPC.