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Arc Movement Inside an AC/DC Circuit Breaker Working With a Novel Method of Arc Guiding: Part I—Experiments, Examination, and Analysis

机译:AC / DC断路器内部的电弧运动,采用新颖的电弧引导方法:第一部分—实验,检查和分析

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摘要

Within this project, the mode of operation of the circuit breaker and its new innovative method of arc guiding were analyzed and verified. The solution refers to a switching device that is able to deal with both ac switching loads and bidirectional dc switching loads. It is primarily intended for use in UIC-capable switching units for voltages up to 3 kV and currents up to 800 A. The concept uses a combination of permanent and electromagnetic blowout fields. This completely new and innovative approach is intended to permit activation of the blast coils by the arcs themselves to generate the electromagnetic blowout fields without need for additional electrical switching contacts. The combining of a newly developed optical data acquisition system together with the conventional recording of electrical parameters made the verification of the working hypothesis of the switching process possible. A numerical model is used for the simulation of the later stage of the extinguishing process, where the arc is driven toward the arcing chamber by the superposed magnetic fields of permanent magnets and blast coils, until it is extinguished due to elongation and cooling by the arc splitter stack. The results of the measurement data analysis and theoretical modeling and simulation of the extinguishing process led to the identification of critical operational areas and resulted in a successful optimization of the contactor.
机译:在该项目中,分析并验证了断路器的工作方式及其新颖的电弧引导方法。该解决方案涉及一种能够同时处理交流开关负载和双向直流开关负载的开关设备。它主要用于具有UIC的开关单元,电压高达3 kV,电流高达800A。该概念结合了永久性和电磁性击穿场。这种全新的创新方法旨在允许电弧本身激活喷砂线圈,以产生电磁喷发场,而无需其他电气开关触点。新开发的光学数据采集系统与常规的电参数记录相结合,使验证开关过程的工作假设成为可能。数值模型用于模拟灭火过程的后期,在该过程中,永磁体和爆炸线圈的叠加磁场将电弧驱向电弧室,直到电弧由于伸长和冷却而熄灭拆分器堆栈。测量数据的分析结果以及灭火过程的理论建模和仿真结果确定了关键的操作区域,并成功地优化了接触器。

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