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4路GW级纳秒脉冲源同步技术实验研究

Experimental research on synchronized operation of 4 parallel-connected 1 GW nanosecond pulse generators
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摘要 利用峰值功率可达1GW的纳秒脉冲源CKP1000开展了4路GW级纳秒脉冲源同步技术实验研究。使用trigatron作为触发开关,通过单路开关触发特性实验研究优化了开关的结构与工作参数,单路开关抖动0.2ns,建立了实验装置,实现了4路GW级纳秒脉冲源并联同步输出。同步实验结果为:纳秒脉冲源输出电压230kV,峰值功率1GW,脉冲宽度6ns,4路输出脉冲同步偏差95%以上概率分布在1ns以内,平均同步偏差630ps。 Experimental research on synchronized operation of 4 parallel-connected 1 GW nanosecond pulse generators is presented.With trigatron as trigger switch,the synchronized operation is successfully achieved.The jitter time of trigation is 0.2 ns.The mutual spread of four 6 ns wide pulses is lower than 1 ns(probability above 95%) with an average value of 630 ps at a peak power of 1 GW(230 kV on 50 Ω load) of each parallel-connected module.
出处 《强激光与粒子束》 EI CAS CSCD 北大核心 2011年第11期2971-2973,共3页 High Power Laser and Particle Beams
关键词 纳秒脉冲源 同步技术 TRIGATRON 触发开关 TESLA变压器 nanosecond pulse source synchronization technology trigatron trigger switch Tesla transformer
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参考文献8

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二级参考文献8

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