Comparison of Optimization Methods used in the Design of Functionally Graded Insulation Objects

Haoyang Yin, Wen-Dong Li, Chao Wang, Zhi-hui Jiang, Wang Guo, Guanjun Zhang
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Abstract

At present, the application of functionally graded materials (FGM) in the field of solid insulation objects has become a hot issue. Applying dielectric functionally graded material (d-FGM) into insulation objects can effectively improve the insulation performance without complicating the physical structure of insulation objects. In the application of d-FGM insulators, how to select the optimal spatially distribution of dielectric parameters (conductivity or permittivity) is one of the key issues. In this paper, two typical types of algorithms (iterative algorithm and topology algorithm) are used to optimize the dielectric parameter distribution of the truncated cone insulator model. It can be seen from the optimization results that the two optimization algorithms have effectively reduced the electric field strength at triple junctions and improved the insulation performance of the insulator. Finally, the optimization effects of the two algorithms are compared, and it is found that topology optimization algorithm has better effect, with higher flexibility and advancement.
功能分级保温对象优化设计方法比较
目前,功能梯度材料(FGM)在固体绝缘物体领域的应用已成为一个热点问题。将介电功能梯度材料(d-FGM)应用于绝缘材料中,可以在不使绝缘材料物理结构复杂化的情况下,有效地提高绝缘性能。在d-FGM绝缘子的应用中,如何选择最佳的介电参数(电导率或介电常数)的空间分布是关键问题之一。本文采用迭代算法和拓扑算法两种典型算法对截锥形绝缘子模型的介电参数分布进行优化。从优化结果可以看出,两种优化算法都有效地降低了三结处的电场强度,提高了绝缘子的绝缘性能。最后,比较了两种算法的优化效果,发现拓扑优化算法效果更好,具有更高的灵活性和先进性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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