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

Session 2: Stability Analysis and Performance Improvement Strategies for Grid-Forming Equipment Grid-Connected Systems

“构网型装备并网系统稳定性分析与涉网性能提升策略”

Session 2

Stability Analysis and Performance Improvement Strategies for Grid-Forming Equipment Grid-Connected Systems
“构网型装备并网系统稳定性分析与涉网性能提升策略”

Dominated by high-proportion renewable energy and high power electronicization, the new-type power system has witnessed grid-forming devices such as photovoltaic, energy storage and wind power gradually become key grid-connected units. These equipment effectively compensate for the deficiency of conventional grid-following devices lacking active grid support capability. Nevertheless, the large-scale grid integration of grid-forming equipment fundamentally changes the inertia, damping and dynamic response characteristics of power grids, resulting in emerging stability challenges including low-inertia instability, multi-device coupling oscillation, insufficient fault ride-through capability and poor grid adaptability, which severely restrict the safe grid-connection and efficient consumption of renewable energy. This special forum focuses on the core technical bottlenecks of grid-forming equipment grid-connected systems, covering cutting-edge research directions such as system stability mechanism, dynamic characteristic analysis, grid-connection fault performance and grid-related control optimization. It gathers global experts and scholars in the power industry to exchange latest theoretical research and engineering achievements, tackle the stability challenges of grid-forming equipment, and explore efficient and universal grid performance improvement schemes. This session aims to provide solid technical support and academic references for the safe and stable operation of new-type power systems and the upgrading of renewable energy grid-connected technologies.

新型电力系统高比例新能源、高电力电子化的发展特征,推动构网型光伏、储能、风电等装备成为电网核心并网单元,有效弥补了传统跟网型设备无主动支撑能力的短板。但大规模构网型装备并网,彻底改变了电网惯量、阻尼及动态响应特性,引发低惯量失稳、多设备耦合振荡、故障穿越能力不足、并网适配性差等一系列新型稳定问题,极大制约了新能源大规模安全并网与高效消纳。本专题聚焦构网型装备并网系统的核心技术难题,围绕系统稳定机理、动态特性分析、并网故障特性、涉网控制优化等前沿方向开展研讨。旨在汇聚全球电力领域专家学者,交流最新理论研究与工程实践成果,攻克构网型装备并网稳定性瓶颈,探索高效、通用的涉网性能提升方案,为新型电力系统安全稳定运行、新能源并网技术迭代升级提供坚实的技术支撑与学术参考。  

Topics (Including but not limited to)  

    Topic 1:Stability mechanism analysis of grid-forming equipment grid-connected systems(构网型装备并网系统稳定机理分析)
    Topic 2:Multi-scenario stability evaluation and quantitative analysis methods for grid-forming power systems(构网型电力系统多场景稳定性评估与量化分析方法)
    Topic 3:Advanced grid-connected control and fault ride-through technology of grid-forming equipment(构网型装备先进并网控制与故障穿越技术)
    Topic 4:Optimization strategies for improving grid adaptability and grid-related operation performance(电网适配性与涉网运行性能优化提升策略)
    Topic 5:Engineering application and practical verification of stable grid-integration technology for grid-forming equipment(构网型装备稳定并网技术的工程应用与实证验证)
     

Chair: Assoc. Prof. Bingbing Shao, Hefei University of Technology, China

Bingbing Shao, associate professor and doctoral supervisor, mainly engages in stability analysis and control of renewable energy power systems, as well as research on advanced transmission technologies for renewable energy grid connection (DC and low-frequency transmission). In recent years, he has presided over projects of the National Natural Science Foundation of China, general projects of the Postdoctoral Fund, sub projects of the National Science and Technology Major Project of Smart Grid, and open projects of State Key Laboratory. Published more than 60 papers, applied for/authorized more than 40 invention patents, participated in the compilation of 1 national standard and 3 industry standards, won IET ACDC Young Scholar Award, ICPRE Best Young Scientist Award, the Excellent Doctoral Dissertation Award of North China Electric Power University, and 8 Outstanding Papers in Journals/Conferences. Served as an expert in the domestic counterpart working groups of IEC TC 115 JWG 11 and IET/TC 22/SC 22F, and as a communication committee member of the DL40/SC1 subcommittee on flexible low-frequency power transmission.

Co-chair: Prof. Lingfei Xiong, State Grid Economic and Technological Research Institute, Co., Ltd., China

Lingfei Xiong, Ph.D., a professor-level senior engineer. He currently serves as the Director of the Converter Station Technology Department at the DC Technology Consulting Center of State Grid Economic and Technological Research Institute Co., Ltd. He is mainly engaged in the design of complete sets of ultra-high voltage flexible DC and sea breeze flexible DC systems, as well as research on the stability of AC/DC systems.

 

Co-chair: Dr. Qiang Fu, Hong Kong Polytechnic University, Hong Kong, China

Qiang Fu is currently a Research Fellow in the Department of Electrical and Electronic Engineering at The Hong Kong Polytechnic University. He is a recipient of the National Hong Kong Scholar Award and the China–Brazil Young Scientist Award. His research interests include power system stability analysis and control, renewable energy integration, HVDC systems, and converter-driven stability. He has published more than 30 papers in IEEE Transactions journals, holds over 10 granted invention patents, authored one research monograph, and contributed to one IEEE standard. He has led several competitive research projects, including a National Natural Science Foundation of China (NSFC) Young Scientists Fund project, a NSFC Joint Fund project, two sub-projects under the National Key Research and Development Program of China, and four projects supported by national key laboratories and provincial/ministerial natural science foundations. He currently serves as a Guest Researcher at the State Key Laboratory of HVDC Technology, a Young Expert Member of the Modern Power Grid Research Center at The Hong Kong Polytechnic University, and a member of the Young Expert Group of the Journal Center of China Electric Power Research Institute. He also serves as a Young Editorial Board Member and Guest Column Editor for several EI-indexed and Chinese core journals. He has received the Excellent Youth Talent Award from the IEEE PES Power System Protection and Control Technical Committee and Outstanding Reviewer Awards from multiple international journals.

Co-chair: Assoc. Prof. Yaqi Shen, North China Electric Power University, China

Shen Yaqi, Associate Professor. Her main research focuses on stability analysis and control of new energy power systems. In recent years, she has presided over projects including the National Natural Science Foundation of China, the National Science and Technology Major Project for Smart Grid, and open projects of State Key Laboratories. She has published more than 30 papers, filed/obtained over 10 patents, co-developed one IEEE international standard, and authored one Chinese monograph. Her awards include one first prize and one second prize at the provincial and ministerial Science and Technology Progress Awards, one second prize of industry Science and Technology Progress Award, and one Special Mention Gold Award at the Geneva Invention Exhibition. She serves as Vice Group Leader of IEEE PES China Women in Power Membership Group and an editorial board member of Carbon Neutrality Technology Review.

Call for Papers Timeline / 征稿时间

  • Submission of Full Paper: November 30th, 2026
    投稿截止日: 2026年11月30日 

  • Notification Deadline: December 30th, 2026
    通知书发送: 2026年12月30日 

  • Registration Deadline: January 20th, 2027
    注册截止日期: 2027年1月20日