Collaborative Control of Transmission, Distribution, and Microgrids for Security and Stability Enhancement under High-Penetration Renewable Energy
高比例新能源下主配微协同控制与安全稳定提升
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| Submission Deadline: October 10, 2026 |
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| Chair: |
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| Yongji Cao |
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| Shandong University, China |
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| Co-chairs: |
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| Guocheng Song |
Wenshu Jiao |
Baoliang Li |
| Tianjin University, China |
Shandong University of Science and Technology, China |
Shandong Jiaotong University, China |
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| Keywords: |
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- High-Penetration Renewable Energy (高比例新能源)
- Transmission-Distribution-Microgrid Coordination (主配微协同)
- Security and Stability (安全稳定)
- Diverse Energy Storage (多元储能)
- Artificial Intelligence (人工智能)
- Virtual Power Plant (虚拟电厂)
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| Topics (Include but are not limited to): |
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- Security and Stability Mechanisms and Analytical Methods for Power Systems (电力系统安全稳定机理与分析方法)
- Hierarchical Collaborative Architecture Design and Optimization Methods for Transmission-Distribution-Microgrid Systems (主配微分层协同架构设计与优化方法)
- Stability Control Technologies under High-Penetration Renewable Energy Integration (高比例新能源接入下的稳定控制技术)
- Inertia and Primary Frequency Support Technologies (惯量/一次调频支撑技术)
- Diverse Energy Storage Regulation and Optimal Energy Management (多元储能调控与能量优化管理)
- Artificial Intelligence-Driven Control and Decision-Making (人工智能驱动的控制决策)
- Virtual Power Plant Regulation and Market Interaction (虚拟电厂调控与市场互动)
- Source-Grid-Load-Storage Distributed Collaborative Control (源网荷储分布式协同控制)
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| Summary: |
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- Against the backdrop of high-penetration renewable energy integration, the new power system exhibits prominent "dual-high" characteristics. Critical challenges including declining system inertia, insufficient frequency/voltage regulation capability, and escalating wide-band oscillation risks have become increasingly severe. Transmission networks, distribution networks, and microgrids differ significantly in dynamic response time constants, with naturally complementary control objectives and response scales. The traditional hierarchical decoupled dispatch model fails to fully exploit the cross-level synergistic support potential of distributed resources, necessitating the establishment of a novel security and stability control architecture tailored for transmission-distribution-microgrid coordination. This forum focuses on cutting-edge directions including diverse energy storage-supported regulation, artificial intelligence-empowered decision-making, and virtual power plant aggregation and interaction. In-depth discussions are conducted on theoretical methods, key technologies, and engineering applications of transmission-distribution-microgrid collaborative control and security/stability enhancement, aiming to explore development pathways for collaborative stability control technologies in high-penetration renewable energy grids and contribute to the secure and efficient operation of new power systems.
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- 高比例新能源接入背景下，新型电力系统“双高”特征显著，系统惯量持续下降、调频调压能力不足、宽频振荡风险加剧等问题日益突出。主网、配网与微电网之间动态响应时间常数差异明显，控制目标与响应尺度具有天然互补性，传统分层解耦的调度模式难以充分发挥跨层级资源的协同支撑潜力，亟需构建面向主配微协同的安全稳定控制新架构。本论坛聚焦多元储能支撑调控、人工智能赋能决策、虚拟电厂聚合互动等前沿方向，围绕主配微协同控制与安全稳定提升中的理论方法、关键技术及工程应用开展深入研讨，旨在探索高比例新能源电网协同稳定控制技术的发展路径，助力新型电力系统安全高效运行。
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