Modeling of Microcapsule-based Self-healing Material to Achieve Better Recovering from Electrical Tree Defects

Jiaye Xie, Yujie Zhu, Qi Li, Jun Hu, Jinliang He
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Abstract

Microcapsule-based self-healing material has been developed to repair the electrical tree defect, which is regarded as the major factor that results in electrical damage of polymer insulations. Compared to heal mechanical cracks, it is more complex to introduce self-healing capacity to insulation material since the material requires higher property and the healing process faces more severe conditions. In this work, microcapsule-based self-healing insulating material containing electrical tree channels is modeled. The mechanism by which self-healing material heals the electrical tree and recovers the dielectric property is demonstrated by simulating the self-healing material with healing agent before filling, after filling and after cured. The results of the simulation give guidance for the design of those material to achieve better healing performance.
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基于微胶囊的自愈材料建模以实现更好的电树缺陷修复
摘要基于微胶囊的自修复材料被认为是导致聚合物绝缘体电损伤的主要因素。与修复机械裂缝相比,引入自愈能力对绝缘材料的性能要求更高,修复过程面临更严峻的条件,因此更为复杂。在这项工作中,基于微胶囊的自修复绝缘材料包含电树通道进行了建模。通过对填充前、填充后和固化后的自愈材料进行模拟,论证了自愈材料修复电树和恢复介电性能的机理。仿真结果可为该类材料的设计提供指导,以获得更好的愈合性能。
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