基于充电线脉冲发生器的电子器件应力测试系统设计

M. Kirichenko, A. Drozdov, R. Zaitsev, G. Khrypunov, A. Drozdova, L. Zaitseva
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引用次数: 10

摘要

基于充电线的系统是建立电子设备测试线的最合适的电磁脉冲发生器设计之一。这种基于电缆的充电线路与快速开关触发器相结合,可以产生持续时间为纳秒的电磁脉冲,上升时间为1纳秒。脉冲的振幅直接取决于电缆充电电压,等于其值的一半。因此,具有这些参数的发电机的控制和设置是一项相当困难的任务。本文通过设计基于单片机的电子器件应力测试系统来解决这一问题,该系统包括充电线发电机的控制单元和供电单元。通过使用微控制器作为控制中心,我们在一个设备中集中了在40到400 V范围内以不超过1 V的步长对线路充电的可能性,实现了单脉冲的手动启动和一系列脉冲的自动控制,并确保了设备工作状态的必要安全指示。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of Electronic Devices Stress Testing System with Charging Line Based Impulse Generator
Systems based on the charging line are one of the most suitable designs of electromagnetic pulses generators for building up test lines of electronic devices. Such cable-based charging lines in combine with fast switching triggers will allow generating electromagnetic impulses with nanosecond duration and rising time at a level of 1 nanosecond. The amplitude of impulse directly depends from the cable charge voltage and equal half of its value. Therefore, control and setting up of generator with such parameters are quite difficult task. In present work this problem was solved by design microcontroller based electronic devices stress testing system, which includes control and power supply units for charging line generator. By using microcontroller as a control center we concentrate in one device the possibility to charge line in the range from 40 to 400 V with steps no more than 1 V, realize like manual start of a single pulse and automatic controlled regime with series of impulses and ensures necessary for safety indications of device working regimes.
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