一个100kV, IGBT开关,火花间隙触发发电机

C. H. Burke, Paul W. Smith
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引用次数: 1

摘要

缺乏小型,快速的开关,如速控管(例如EG&G KN 6)和闸流管(例如E2V FX2530),使得高压火花间隙触发单元的设计存在问题。本文将介绍一种100kV触发发电机,该发电机采用高压大电流IGBT开关模块进行开关。一个电容器,充电至6kV,与IGBT一起放电到高增益自耦变压器的初级,其次级连接到发电机的输出。变压器用铜和聚酯薄膜缠绕在无定形金属玻璃铁芯上,该铁芯被小心地隔开以避免铁芯饱和。这种全固态发生器的优点之一是它可以很容易地由TTL输入脉冲触发,并且发生器的吞吐量延迟和抖动特性很好。因此,由该发电机触发的脉冲功率系统非常容易同步到可能需要进行的任何诊断测量。触发发生器输出脉冲上升时间≥150ns,在脉冲变压器输出电路中增加一个简单的脉冲锐化电路,可以将上升时间缩短到足以促进轨隙多通道的持续时间。描述了基本电路和变压器的计算,这些计算解释了变压器初级电路到次级电路的电压增益与输出脉冲上升时间之间的权衡。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A 100kV, IGBT switched, spark gap trigger generator
The lack of availability of small, fast, switches such as krytrons (e.g. EG&G KN 6) and thyratrons (e.g. E2V FX2530) makes the design of high voltage spark gap trigger units problematic. This paper will describe a 100kV trigger generator which is switched using a high voltage, high current IGBT switch module. A capacitor, charged up to 6kV, is discharged with the IGBT into the primary of a high gain autotransformer, the secondary of which is connected to the output of the generator. The transformer is wound with copper and mylar foils on to an amorphous metal glass core which is carefully gapped to avoid core saturation. One of the advantages of this all-solid-state generator is that it can easily be triggered by a TTL input pulse and the throughput delay and jitter of the generator is well characterised. Hence it is then very easy to synchronise a pulsed power system, triggered by this generator, to any diagnostic measurements that may need to be made. Output pulse rise-times from the trigger generator are ≥ 150 ns and a simple pulse sharpening circuit can be added to the output circuit of the pulse transformer which can reduce the rise-time to durations which are short enough to promote multi-channelling in rail-gaps. Basic circuit and transformer calculations are described which explain the trade-off between voltage gain from the primary to the secondary circuits of the transformer and the rise-time of the output pulse.
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