<style type="text/css">.wpb_animate_when_almost_visible{opacity:1}</style>

Session 20: Advanced Power Electronics Technologies for Hydrogen-Electric Coupled Systems and Future Energy Power Systems

“面向氢电耦合系统与未来能源电力系统的先进电力电子技术”

Session 20

The Application of Renewable Energy and Carbon Reduction Technologies in Achieving Carbon Neutrality Goals
“面向氢电耦合系统与未来能源电力系统的先进电力电子技术”

With the rapid transition toward carbon neutrality, modern energy systems are undergoing profound transformations driven by large-scale renewable integration, hydrogen energy deployment, and electrification of end-use sectors. In this context, power electronics has become the enabling core technology that connects energy sources, storage systems, and loads, ensuring efficient, flexible, and reliable energy conversion and control.
Hydrogen-electric coupled systems, including power-to-hydrogen, hydrogen-to-power, and integrated hydrogen–electric energy hubs, are emerging as key solutions for large-scale renewable energy utilization and long-term energy storage. Power electronic converters play a critical role in these systems by enabling high-efficiency power conversion, bidirectional energy flow, grid-friendly operation, and coordinated control between electrical and hydrogen subsystems. Meanwhile, the development of future energy power systems—characterized by high penetration of renewables, power electronic dominance, and multi-energy coupling—poses new challenges for converter topologies, control strategies, stability analysis, and system-level optimization.
Despite significant progress, several technical challenges remain, including converter efficiency and reliability under wide operating conditions, grid stability in power-electronics-dominated systems, coordinated control of multi-energy coupling, and integration with emerging technologies such as energy storage and hydrogen infrastructure. Addressing these challenges requires advances in power electronic devices, converter architectures, control algorithms, and system modeling methodologies.
This special session aims to provide an international forum for researchers and practitioners to present recent advances in power electronics technologies and applications for hydrogen-electric coupled systems and future energy power systems. Topics will cover converter design, control and protection, system integration, and application-oriented studies that support the development of low-carbon, efficient, and resilient energy power systems. The session seeks to promote academic exchange and industry–academia collaboration, contributing to the sustainable evolution of next-generation energy power systems.

Topics (Including but not limited to)  

  • 1. Power electronic converters for hydrogen-electric coupled systems
  • 2. Power-to-hydrogen and hydrogen-to-power conversion technologies
  • 3. Advanced converter topologies and control strategies
  • 4. Power electronics-dominated power systems and stability analysis
  • 5. Grid-connected converters for renewable energy integration
  • 6. Power electronic interfaces for energy storage systems
  • 7. Multi-energy coupling and coordinated control technologies
  • 8. Wide-bandgap devices and high-efficiency power converters

Chair: Dr. Wenjun Zhao, University of Nottingham, UK

Dr. Zhao Wenjun holds a Master’s degree in Architectural Engineering from the University of Hong Kong and a Ph.D. in Sustainable Energy from the University of Nottingham, UK. Her research focuses on carbon-neutral energy technologies, aiming to enhance energy efficiency and reduce carbon emissions through innovations in energy multiphase flow and heat/mass transfer and numerical simulation of energy systems. She has published over 40 SCI papers with more than 700 citations, and has been recognized with awards including a Bronze Medal in the "Internet Plus" Innovation and Entrepreneurship Competition and a Third Prize in the China Society of Engineering Thermophysics' Zero-Carbon Future Innovation Competition.

Co-chair: Prof. Hao Lu, Xinjiang University, China

Professor Lu Hao is a doctoral advisor at Xinjiang University, recognized as a high-level overseas talent and recipient of the Xinjiang Outstanding Youth Science Fund. He has been a senior visiting scholar at Harvard and Columbia Universities and ranks among Stanford’s global top 2% highly cited scientists.
He serves as the discipline leader in new energy power generation within the Energy and Power Engineering PhD program and holds key roles including Academic Deputy Dean of the School of Intelligent Science and Technology, Deputy Director of the Ministry of Education’s Northwest Energy Carbon Neutrality Engineering Research Center, Director of the Ruoqiang Energy Industry Research Institute, and leader of the university’s "Energy Carbon Neutrality" innovation team.
Professor Lu has led over 50 research projects, including national key R&D programs, NSFC grants, and international collaborations. He has published more than 240 academic papers, including over 140 SCI papers (90+ in JCR Q1 journals) with 3,000+ citations, and holds 30+ patents. He has also authored two monographs on carbon neutrality and integrated energy systems.

Call for Papers Timeline / 征稿时间

  • Submission of Full Paper: February 1st, 2026
    投稿截止日: 2026年2月1日 

  • Notification Deadline: March 1st, 2026
    通知书发送: 2026年3月1日 

  • Registration Deadline: March 20th, 2026
    注册截止日期: 2026年3月20日