Our energy storage research leverages advanced AI-driven approaches to revolutionize the design, optimization, and lifecycle assessment of next-generation energy storage systems. By combining experimental testing, physics-based modeling, physics-informed machine learning, and generative design, we drive significant improvements in efficiency, performance, reliability, and sustainability. Our work spans the entire spectrum, from the chemistry within individual cells to pack-level thermal management, addressing applications in electric vehicles, grid-scale storage, and portable electronics.

We develop advanced thermal management systems for battery packs using generative design, physics-informed machine learning, and optimization techniques. Our research focuses on improving thermal performance, extending battery life, and ensuring safe operation under various operating conditions.

Our research in battery manufacturing focuses on developing advanced manufacturing processes for solid-state batteries. We develop probabilistic frameworks that ensure robust battery performance while maintaining system reliability and safety throughout the manufacturing process.

We conduct comprehensive life cycle assessments and techno-economic analyses for battery recycling processes, evaluating environmental impacts and economic viability of recycling methods. Our research guides the development of more sustainable and efficient battery recycling solutions.
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