含纳米填料硅橡胶的热激去极化电流

R. Hussain, V. Hinrichsen
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引用次数: 1

摘要

高压直流输电(HVDC)越来越具有高压交流输电(HVAC)的竞争力,特别是在长距离大容量输电中。对于跨越广阔的都市地区或长距离的公海,特别是高压直流电缆线路具有很大的吸引力。在绝缘方面,与油纸绝缘电缆等其他类型的绝缘电缆相比,挤压交联聚乙烯高压直流电缆具有显著的优势。除了更高的允许导体温度外,挤压电缆的连接也更简单。然而,高压直流绝缘系统中的电场分布要复杂得多,因为它在很大程度上取决于绝缘的导电性。特别是空间电荷的存在会导致电场应力增加,直至器件失效。这些挑战需要开发适合高压直流应用的新型绝缘材料。本文的目的是提出热激去极化电流(TSDC)方法,用于研究和评价绝缘材料。首先介绍了TSDC测量的一般测试步骤,然后描述了所有重要的TSDC参数。本文介绍了一种用于TSDC测量的测试装置。此外,概述了TSDC测量的挑战并介绍了解决方案。研究是在液态硅橡胶(LSR)上进行的,用作绝缘材料,例如用于电缆接头的绝缘。此外,还对不同浓度纳米填料的LSR样品进行了TSDC测量,以评估其电学性能。最后一种方法是介绍TSDC方法在高压直流输电应用中的范围。
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Thermally Stimulated Depolarization Currents on Silicone Rubber with Nanofillers
High voltage direct current (HVDC) power transmission is becoming more and more competitive to high voltage alternate current (HVAC) power transmission, especially for bulk power transmission over long distances. For crossing wide metropolitan areas or long distances in the open sea, especially HVDC cable lines are attractive. Regarding the insulation, extruded XLPE HVDC cables offer significant advantages over those with other types of insulation, e.g. oil-paper insulated cables. In addition to higher permissible conductor temperatures also jointing of extruded cables is simpler. Nevertheless, the electric field distribution is much more complex in HVDC insulation systems because it strongly depends on the conductivities of the insulation. Especially the presence of space charges can lead to increased electric field stress up to failure of the device. These challenges require development of new insulating materials that are suitable for HVDC applications. The purpose of this paper is to present the method of Thermally Stimulated Depolarization Currents (TSDC), which allows investigating and evaluating insulating materials. First, the general test procedure of a TSDC measurement is introduced, and then all significant TSDC parameters are described. A test setup has been developed to perform TSDC measurements, which is presented in this paper. Furthermore, the challenges of a TSDC measurement are outlined and solutions are introduced. The investigations are performed on a liquid silicone rubber (LSR) to be used as an insulating material, e.g. for the insulation of a cable joint. In addition, TSDC measurements are performed on LSR samples with different concentrations of nanofillers to evaluate their electrical properties. The final approach is to present the scope of the TSDC method with regard to HVDC applications.
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