田书欣,苏鹏斌,赵昊星,李振坤,米阳
TIAN Shuxin,SU Pengbin,ZHAO Haoxing,LI Zhenkun,MI Yang

• 1:教育部海上风电技术工程研究中心(上海电力大学)
• 2:上海电力大学电气工程学院

摘要(Abstract)：

冰灾引发线路覆冰、救援难度大等问题，严重威胁电热综合能源系统的安全运行。对此，提出一种冰灾场景下考虑无人机灾中不停电除冰、灾后协同恢复的电热综合能源系统韧性提升方法。首先，建立计及线损的线路故障率模型，以量化冰灾对线路的影响；其次，从防御力、应变力、协同力与恢复力角度出发，提出系统防御能力、负荷存续量、负荷弥补量与负荷恢复量等韧性指标；然后，以多指标综合最优为目标函数，统筹考虑无人机除冰、建筑热惯性、有机朗肯循环系统发电、抢修队等约束，建立冰灾场景下电热综合能源系统韧性提升策略优化模型；最后，采用6节点热力系统与改进IEEE 33节点配电系统构成的电热综合能源系统为典型算例，验证所提方法的可行性。
Ice storms trigger transmission line icing and complicate emergency response, severely threatening the secure operation of integrated electricity-heat energy systems. To address this, this paper proposes a resilience enhancement method for integrated electricity-heat energy systems considering UAV de-icing without power interruption during disasters and post-disaster collaborative recovery. First, a line failure rate model accounting for iceinduced line losses quantifies disaster impacts. Second, resilience metrics are established across four dimensions: defensive capacity, adaptive response, coordination capability, and recovery effectiveness. Third, a multiobjective optimization model maximizes these resilience metrics, incorporating operational constraints of UAV deicing, building thermal inertia, organic Rankine cycle(ORC) generation, and repair crew deployment. Finally, validation using a 6-node thermal system coupled with a modified IEEE 33-node distribution network confirms the method's efficacy.

关键词(KeyWords)： 冰灾;无人机除冰;综合能源系统;韧性提升;有机朗肯循环系统发电
ice disaster;UAV de-icing;integrated energy system;resilience enhancement;ORC generation

Abstract:

Keywords:

基金项目(Foundation): 国家自然科学基金（52007112）;; 国家电网有限公司科技项目（B30934240001）

作者(Author): 田书欣,苏鹏斌,赵昊星,李振坤,米阳
TIAN Shuxin,SU Pengbin,ZHAO Haoxing,LI Zhenkun,MI Yang

DOI: 10.19585/j.zjdl.202511001

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