Senior Research Engineer
Southwest Research Institute, San Antonio, TX
Leading research at the intersection of energy systems, machine learning, and control architectures. Specializing in battery energy storage systems, fuel cell technologies, and ultra-low emissions control with a focus on translating theoretical advances into real-world applications.
Bridging theoretical research and practical innovation
I am a Senior Research Engineer at Southwest Research Institute (SwRI) with a Ph.D. in Mechanical Engineering from Michigan Technological University . My research bridges chemical kinetics, physics-based modeling, and machine learning to solve complex energy challenges.
Currently, my research interests include lithium-ion battery modeling for grid storage applications, fuel cell control systems for hydrogen vehicles, and advanced aftertreatment systems for ultra-low NOx emissions. My recent research focused on automated calibration using machine learning has reduced calibration time from 6 weeks to just 2 weeks for ultra low NOx model based control system.
With over 12 years of experience, I have contributed to numerous industry projects with partners including TEPCO, ENGIE, CEZ, Isuzu, Cummins, and Johnson Matthey. My work has resulted in 5 patents, 21+ publications, and significant advancements in sustainable energy and emissions control technologies.
Beyond research, I am passionate about astrophotography and capturing celestial phenomena. This creative pursuit inspires innovative thinking - as I believe, "No idea is too unrealistic. If it is obvious, then it would have been out there already."
Advancing the frontiers of energy and emissions technology
Developing physics-based lithium-ion battery models for grid storage applications. Created digital twins for SOC/SOH prediction and dendrite detection algorithms to prevent thermal runaway in NMC 811 chemistry batteries.
Leading development of supervisory control systems for Toyota Mirai fuel cells. Focus on humidity and temperature management to optimize performance and prevent degradation in heavy-duty vehicle applications.
Pioneering machine learning approaches for SCR system calibration, achieving EPA 2027 standards. Developed predictive urea dosing controls and aging models for diesel and hydrogen aftertreatment systems.
Applying physics-informed neural networks, LLM fine-tuning with LoRA and RAG techniques, and transformer models for control applications. Automated calibration reduces testing time from weeks to hours.
Developing novel catalysts and control systems for hydrogen engine aftertreatment. Part of industry led projects advancing hydrogen combustion technologies for zero-emission transportation.
Colabrated with partners including TEPCO, ENGIE, CEZ in the SwRI Grid Joint Industry Project. Developing control algorithms for mixed-service grid operations and battery performance monitoring.
Contributing to the advancement of scientific knowledge
Energy and AI, 2024
International Journal of Engine Research, 2021
SAE Int. J. Adv. & Curr. Prac. in Mobility, 2024
US Patent Application 18/750,117 (2024)
US Patent No. US20230358157A1 (2023)
US Patent No. 10,690,033 (2020)
SAE Technical Paper 2025-01-0402, 2025
SAE Technical Paper 2025-01-8586, 2025
SAE Technical Paper 2024-01-2625, 2024
Comprehensive expertise across multiple domains