New manufacturing process for the metal oxide varistors used on low voltage surge-arresters

Adrian Paun, D. Vatau, F. Frigura-Iliasa, P. Andea, M. Frigura-Iliasa, F. Balcu
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引用次数: 1

Abstract

The effective protection of each type of sensible electronic piece of equipment against any type of over voltage (including direct or indirect lightning applied on power supply) is a big issue for power system specialists. Some of the most reliable electronic devices used in order to protect against overvoltages are all voltage metal oxide varistor based surge-arresters. These varistors are produced starting from a thick mixture of different metal oxides, where the main component (more than 80–90% as mass percentage) is ZnO. New improvements for these devices could be performed only by taking in consideration their mass production process, by placing different additives, having specific influences on the electrical and thermal behavior of the semiconductor material, mostly on their non-linear relation between the voltage applied and the current response as well as on their heat absorption capability. In literature there is no physical or mathematical model in order to assess the role of each dopant (additive) on the main characteristics. This is an experimental process which insures to the development of new semiconductor materials. This article will present a new manufacturing process (temperature and explain the influence of the sintering temperature on the electrical properties of two varsitor materials, with 2 and 5 additives.
低压避雷器用金属氧化物压敏电阻的新制造工艺
对于电力系统专家来说,有效保护各种类型的敏感电子设备免受任何类型的过电压(包括施加在电源上的直接或间接雷击)是一个大问题。用于防止过电压的一些最可靠的电子设备是基于全电压金属氧化物压敏电阻的浪涌避雷器。这些压敏电阻是从不同金属氧化物的浓稠混合物开始生产的,其中主要成分(质量百分比超过80-90%)是ZnO。这些器件的新改进只能通过考虑它们的大规模生产过程,通过放置不同的添加剂,对半导体材料的电学和热行为有特定的影响,主要是施加的电压和电流响应之间的非线性关系,以及它们的吸热能力。在文献中,没有物理或数学模型来评估每种掺杂剂(添加剂)对主要特性的作用。这是一个实验过程,保证了新半导体材料的开发。本文将介绍一种新的制造工艺(温度),并说明烧结温度对添加2和5添加剂的两种压敏电阻材料电性能的影响。
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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