Professor at Tongji University, China
Dr. Qiangfeng Xiao is a professor at Tongji University, China, with extensive experience in energy storage and conversion materials. He earned his Ph.D. in Chemical Engineering from UCLA in 2010 and has over 50 peer-reviewed publications, 10 patents, and 18 pending patents. Prior to Tongji, he worked at GM’s R&D Center, focusing on lithium-ion and fuel cell technologies. His research includes high-energy Li metal batteries, solid-state electrolytes, and advanced anodes and cathodes. Dr. Xiao is also a reviewer for top journals and a member of several professional societies, recognized for his innovation and contributions to the field.
Professional Profiles
Education
Ph.D. in Chemical Engineering, University of California, Los Angeles (UCLA), 2010. M.S. in Materials Science, Tsinghua University, Beijing, China, 2003. B.S. in Chemical Engineering, Qingdao University, Qingdao, China, 2000
Professional Experience
1. Tongji University, Professor (2018-Present) Leading projects on high-energy Li metal batteries, solid-state electrolytes, and advanced anodes and cathodes. 2. General Motors (GM) Team Leader, Cross-lab Collaboration (2017) Developed high-performance, lightweight surface coatings and vibration dampers for vehicle body panels and battery packs. Senior Researcher, Global Propulsion System (2017-2018) Conducted postmortem analysis of EV battery failures. Before his tenure at Tongji University, Dr. Xiao worked at the General Motors (GM) Research & Development Center for 8 years. Energy conversion
Qualifications
US permanent resident Extensive industrial experience in R&D, particularly in the development of lithium-ion batteries and fuel cells Expertise in the design and hands-on fabrication of 1Ah pouch cells Postmortem analysis of EV batteries In-situ characterization techniques for lithium-ion batteries, including In-situ XRD, TEM, and DEMS Development of technology roadmaps for EV batteries Experience in developing high-energy batteries (500 Wh/kg) Comprehensive knowledge of the industrial process of lithium-ion battery development and production Deep understanding of cell design and chemistry Proficiency in battery pack structure and analysis of cell state within packs Skilled in drafting and securing patent applications Experience in funding application and management Highly self-motivated and innovative. Energy conversion
Research Interests
Dr. Xiao’s research focuses on the design and synthesis of materials for energy storage and conversion applications. His significant contributions include: High-energy rechargeable Li metal 500 Wh/kg batteries F-containing electrolytes for Li anode Sulfides, Garnets, polymers, and their composite-based solid-state electrolytes High-capacity, long-life Si anodes Li-rich manganese-based cathodes Ni-rich single crystal cathodes High-power liquid fuel cells. Energy conversion
Research Focuse
Dr. Qiangfeng Xiao’s research primarily focuses on advanced materials for energy storage and conversion technologies. His work spans the design and synthesis of hierarchical nanowire composites, graphene-based ultrafast charge-discharge cathodes, and high-energy density lithium-ion supercapacitors. He has contributed significantly to the development of silicon and graphene-based anodes, as well as innovative coatings for lithium metal anodes. Dr. Xiao also explores biomimetic ionic channels in metal-organic frameworks for lithium-ion electrolytes and regenerative polysulfide-scavenging layers for lithium-sulfur batteries. His research innovations consistently aim at enhancing energy storage capacity, improving cycling life, and advancing materials for next-generation batteries and supercapacitors. Energy conversion
Publications
- In-situ Construction of Polyelectrolyte/Polyzwitterion Coacervate Framework for High-Performance Silicon Anodes, Publication date: 2024.
- High-voltage ether-based electrolytes for lithium metal batteries via synergy between the solvent and additive, Publication date: 2024.
- Boosting borohydride oxidation kinetics by manipulating hydrogen evolution and oxidation through octahedral Pt-Ni/C for high-performance direct borohydride fuel cells, Publication date: 2024.
- Investigation of non-precious metal cathode catalysts for direct borohydride fuel cells, Publication date: 2024.
- High-performance precious metal-free direct ammonia fuel cells endowed by Co-doped Ni4Cu1 anode catalysts, Publication date: 2023.
- Regulating cathode‐electrolyte interphase by confining functional aluminum compound within Ni‐rich cathodes,Publication date: 2023.
- High-performance zinc-air batteries enabled by hybridizing atomically dispersed FeN2 with Co3O4 nanoparticles, Publication date: 2023.
- Optimization of the cathode catalyst layer for boosting direct ammonia fuel cell performance by orthogonal tests, Publication date: 2023.
- Recent Progress on Nanomodification Applied in Anodes of Rechargeable Li Metal Batteries, Publication date: 2023.
- Prefabrication of a Lithium Fluoride Interfacial Layer to Enable Dendrite-Free Lithium Deposition, Publication date: 2023.
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