We employ atomistic-level computational science to design high-performance electrocatalysts for green hydrogen production. By elucidating complex reaction mechanisms, we aim to maximize the efficiency, durability, and stability of these materials for a sustainable energy future.
Advanced Energy Storage
We're at the forefront of enhancing battery technology, focusing on both performance and safety. Our research is centered on suppressing dendrite growth, a critical challenge in battery innovation. Through computational analysis, we're developing strategies to improve battery life and stability, contributing to safer and more efficient energy storage solutions.
Energy Materials for Carbon Neutrality
We tackle pressing environmental challenges by developing advanced energy materials. Utilizing computational chemistry, we explore innovative catalysts for fuel cells and solutions for Carbon Capture, Utilization, and Storage (CCUS) to drive a sustainable, carbon-neutral future.
Advanced Semiconductor Materials/Processes
We discover next-generation materials and process chemicals to elevate state-of-the-art semiconductor devices. Using computational science, we aim to maximize device efficiency and optimize manufacturing conditions, delivering atomistic-level solutions to the rapidly evolving semiconductor industry.