纳米电介质:界面的存在如何影响其行为?

Toshikatsu Tanaka
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引用次数: 9

摘要

纳米复合材料通常由主客体材料和客体材料组成。在保持主材料原有性能的同时,应使其具有来宾填充材料的优良性能。一般来说,无机材料具有优异的光学、电学、机械和热性能,而有机材料具有优异的重量轻、柔韧性和可加工性。这两种材料的性能可以互补地转移到纳米复合材料上。此外,在新制造的纳米复合材料中可能会出现两种材料都不具备的新性能。主客组合有无机-无机、无机-有机、有机-有机复合三种。目前最受关注的材料是以有机聚合物为主体,无机物质为客体的纳米复合材料。20世纪90年代,聚酰胺/有机粘土纳米复合材料的成功发明开创了这一领域。一开始,人们的注意力主要集中在材料的机械性能和光学性能上。此外,最近的研究还面向包括气体阻隔、润滑、耐热性、热辐射、导电性、电绝缘等性能,旨在通过在纳米尺度上以自组装方式控制材料结构来实现这些性能的巨大变化。各种聚合物纳米复合材料的介电常数、损耗正切、电导率、空间电荷、TSC、介电击穿、树状击穿(短时间击穿和树状V-t特性)、局部放电(PD)电阻、电致发光和任何其他相关特性进行了深入的研究。综上所述,纳米复合材料与传统复合材料相比具有明显的优越性,尤其是其抗PD性能的提高、树形寿命的延长和空间电荷形成的抑制是纳米复合材料最突出的特点。聚合物纳米复合材料在电力设备上的应用有望带来新的创新。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Nanodielectics: How does the presence of interfaces influence behaviour?
Nanocomposites are composed of host and guest materials in general. They should be fabricated so that they may be endowed with superb performances of the guest filler materials, while keeping original performances of the host materials. In general, inorganic materials are excellent in optical, electrical, mechanical and thermal properties, while organic materials are superb in light weight, flexibility, and processability. Such performances for both materials can be transferred, complementarily, to nanocomposites. Furthermore, novel performances that neither of them holds by nature will possibly appear in newly fabricated nanocomposites. There are three kinds of combination as for hosts and guests, i.e. inorganic-inorganic, inorganic-organic, and organic-organic composite systems. The materials that attract most attention to-date are nanocomposites that consist of organic polymers as host and inorganic substances as guest. This field was pioneered by the successful invention of polyamide/organic clay nanocomposites in 1990's. Much attention was directed toward mechanical and optical properties in the beginning. Furthermore, recent investigation is oriented also to performances including gas barrier, lubrication, thermal endurance, heat radiation, electrical conductivity, electrical insulation, aiming at drastic changes in such performances that are expected to appear by controlling material structures in nanometer scale in self-assembly mode. Investigation of various polymer nanocomposites has been intensively made on permittivity, loss tangent, electrical conductivity, space charge, TSC, dielectric breakdown, treeing breakdown (short time breakdown and treeing V-t characteristics), partial discharge (PD) resistance, electroluminescence and any other relevant characteristics. It is now recognized that all the performances as indicated above show the superiority of nanocomposites to conventional composites and especially the improvement of PD resistance, the prolongation of treeing lifetime, and the suppression of space charge formation are most prominent among them as nanocomposites. New application innovation for power apparatus is certainly expected through polymer nanocomposites.
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