无线电力传输系统中树脂基绝缘过程的在线测量技术

M. Kneidl, Daniel Benke, M. Masuch, A. Kühl, J. Franke
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引用次数: 1

摘要

对电动交通日益增长的需求不断催生诸如无线电力传输(WPT)系统等电机的开发和生产创新。因此,对不同填充类型的新型绝缘树脂进行了详细的研究,以防止电气击穿并提高整个绝缘系统的导热性。与新材料的开发和优化相比,应用技术、过程控制和测试在很大程度上仍然没有改变。因此,新绝缘树脂的优化材料性能向特定组件性能的转移受到限制。在最坏的情况下,这会导致树脂的不适当的可加工性,并随后导致电机的故障。此外,终线测试只允许在浸渍和固化后对最终绝缘系统进行鉴定。因此,有缺陷的部件只能在工艺链的末端被识别和丢弃或修复,这会导致生产中的额外成本。这项工作的目的是识别和测量绝缘材料在WPT系统线圈结构封装过程中的介电性能,以获得有关绝缘系统整体质量的信息。因此,将详细阐述在封装过程中确定绝缘系统性能的测试设置。然后用局部放电测量和导体结构的显微照片验证在线测量的结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
In-line Measurement Techniques of Resin-based Insulation Processes for Wireless Power Transfer Systems
The increasing demand for electric mobility is continuously generating innovations in the development and production of electrical machines such as wireless power transfer (WPT) systems. Therefore, new insulation resins with different filler types are investigated in detail to prevent electrical breakdowns and to increase the thermal conductivity of the whole insulation system. In contrast to the development and optimization of new materials, the application technology, process control and testing still remains largely unchanged. As a result, the transfer of the optimized material properties of new insulation resins to the specific component properties is restricted. In the worst case, this leads to an inappropriate processability of the resin and subsequently to the failure of the electrical machine. Furthermore, end-of-line tests only allow a qualification of the final insulation system after impregnation and curing. Thus, defective components can only be identified and discarded or repaired at the end of the process chain, which causes additional costs in production. The aim presented in this work is to identify and measure the dielectric properties of the insulation material along the encapsulation process of a coil structure for WPT systems, to derive information about the overall quality of the insulation system. Therefore, a test setup for qualifying the insulation system capability during the encapsulation process will be elaborated. The results of the in-line measurements are then validated with partial discharge measurements and micrographs of the conductor structure.
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