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Peniotron mode radiation of a 16 slot cusptron oscillator

机译:16槽cusptron振荡器的Peniotron模式辐射

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Summary form only given. Recently, using the peniotron mechanism for high power microwave generation has drawn a considerable amount of attention both theoretically and experimentally. This is because: 1. high efficiency is expected as all beam electrons tend to lose nearly the same amount of energy, regardless of their initial phases relative to the RF field, 2. the guiding center spread of the e-beam is tolerable up to 30%, and 3. it is less contingent on the cyclotron resonance condition and thus, overwhelms the gyrotron interaction in mode competition for a sufficient time. In this work, we first investigate two peniotron modes (TE/sub 12/ 2/spl pi/ mode and TE/sub n/ /spl pi/ mode) in a cusptron configuration via numerical simulations. The results show that both modes can be excited separately in our experimental device for microwave generation. They are indeed confirmed experimentally by matching the frequencies of the radiations with the dispersion relation of the two peniotron modes in the 16 slot waveguide. The output signals of the TE/sub 12/ and the TE/sub n/ modes (before accounting for the insertion loss of the measurements) are detected to be -10 dBm and -25 dBm, respectively. They represent 30 W and 1 W with an estimated 55 dB insertion loss.
机译:仅提供摘要表格。近来,使用peniotron机制产生高功率微波在理论上和实验上都引起了相当多的关注。这是因为:1.期望高效率,因为所有束电子都倾向于损失几乎相同的能量,而不管它们相对于RF场的初始相位如何; 2.电子束的引导中心扩展可忍受到30%和3.它对回旋共振条件的依赖性较小,因此,在足够长的时间里,在模式竞争中压倒了回旋加速器的相互作用。在这项工作中,我们首先通过数值模拟研究了cusptron配置中的两种peniotron模式(TE / sub 12/2 / spl pi /模式和TE / sub n / / spl pi /模式)。结果表明,在我们用于产生微波的实验装置中,两种模式都可以分别激发。通过将辐射频率与16缝隙波导中两个变电子模式的色散关系进行匹配,实验上确实可以确定它们。检测到TE / sub 12 /和TE / sub n /模式的输出信号(在考虑测量的插入损耗之前)分别为-10 dBm和-25 dBm。它们代表30 W和1 W,估计有55 dB的插入损耗。

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