Howard Qingsong Tu | Energy Storage | Best Researcher Award

Dr. Howard Qingsong Tu , Rochester Institute of Technology, United States.

Howard Qingsong Tu, Ph.D. is an Assistant Professor at Rochester Institute of Technology and Associate Director of the Battery Prototype Center. His career focuses on advancing sustainable energy and environment systems, especially through the mechanics of electrochemistry in solid-state batteries and water desalination. Dr. Tu completed his Ph.D. at UC Berkeley, followed by a postdoctoral fellowship at Lawrence Berkeley National Lab. He has co-founded a company, mentored students, and led numerous research projects funded by institutions such as the DOE, NSF, and DoD. He is passionate about bridging lab-scale innovations with industrial applications.

Publication profile

Scopus

Education:

Ph.D. in Civil & Environmental Engineering, University of California, Berkeley (2017)
M.S. & B.S. in Mechanical Engineering, Beijing Institute of Technology (2011)
Postdoc in Material Science, Lawrence Berkeley National Lab (2017-2021)

Professional Experience:

Assistant Professor, Rochester Institute of Technology (2021-present)
Associate Director, Battery Prototype Center (2022-present)
Co-Founder & CEO, CALSTERMER LLC (2014-2018)

Suitability for The Award

Dr. Howard Qingsong Tu is a highly suitable candidate for the Best Researcher Award due to his remarkable contributions to sustainable energy, environmental preservation, and electrochemical systems. His work spans from cutting-edge renewable energy storage solutions to innovative environmental technologies, addressing critical global challenges in energy efficiency, pollution control, and resource sustainability.

Professional Development ()

Howard Qingsong Tu, Ph.D., has made significant strides in energy storage, renewable energy, and environmental sustainability research. He developed the open-source TECM (Thermo-electro-chemo-mechanics) package and led high-impact publications and patent filings in solid-state battery technologies. Collaborating with the Battery Prototype Center at RIT, he scales up lab innovations to industrial applications. He also spearheaded projects on wastewater treatment and CO2 capture, funded by top organizations like DOE and NSF. Through teaching, mentoring, and organizing scientific symposia, Dr. Tu nurtures the next generation of researchers while expanding his expertise in clean energy solutions.

Research Focus

Dr. Tu’s research spans three primary areas: electrochemistry mechanics, renewable energy storage, and environmental sustainability. He investigates the mechanics behind electrochemical processes in solid-state batteries, enhancing safety and efficiency in energy storage systems. His work also addresses sustainable water solutions, including ionic transport and membrane fracture in desalination technologies. Further, he explores clean energy alternatives, focusing on zero-wastewater discharge and CO2 reduction techniques. His projects aim to bridge fundamental research with practical solutions for renewable energy and environmental preservation, collaborating with industry and research hubs.

Awards and Honors (

US-EDA Build Back Better Act ($1.3M/yr) – Co-PI
DoE-VTO Battery500 Program ($900K) – Co-PI
DoD-ARO Young Investigator Program ($120K/yr) – PI
NYSP2I Pollution Prevention Fund ($150K/yr) – PI
ACS-ND Grant ($50K/yr) – PI

Publication Top Notes

Effect of solid-electrolyte pellet density on failure of solid-state batteries – Nature Communications, 2024 – Cited by: 7
Structural insight and modulating of sulfide-based solid-state electrolyte for high-performance solid-state sodium sulfur batteries – Nano Energy, 2024 – Cited by: 0
Desalination performance investigation of TpPa-1 COF and MIL-47(V) MOF bilayer membranes using molecular dynamics simulation – Desalination, 2024 – Cited by: 2
The Microscopic Mechanism of Lithiation and Delithiation in the Ag/C Buffer Layer for Anode-Free Solid-State Batteries – Advanced Energy Materials, 2024 – Cited by: 3
Li Dynamics in Mixed Ionic-Electronic Conducting Interlayer of All-Solid-State Li-metal Batteries – Nano Letters, 2024 – Cited by: 1
Interplay of Interfacial Adhesion and Mechanical Degradation in Anode-Free Solid-State Batteries – Journal of the Electrochemical Society, 2024 – Cited by: 0