g波段扩展相互作用速调管宽带波束波相互作用研究

Longlong Yang, Wenxin Liu, Yue Ou, Zhengyuan Zhao
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引用次数: 1

摘要

扩展互作速调管(EIK)是在大功率速调管的基础上,利用扩展互作腔技术在毫米波和太赫兹波段实现大功率、高效率、高增益的大功率、高效率真空电子器件(VED)。本文对g波段大功率EIK高频交互电路进行了设计和优化,并利用PIC三维粒子仿真软件对其进行了仿真。计算结果表明,当工作电压为18.4 kV、束流为0.25 A、中心频率为234.2 GHz时,可获得电子效率大于6%、峰值功率大于278 W的太赫兹输出功率。-3 dB带宽大于250mhz,增益大于34db。该工作对大功率太赫兹EIK的研制及其在国防、卫星、高分辨率雷达等领域的应用具有重要意义。
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Investigation of G-band Extended Interaction Klystron Broadband Beam-wave Interaction
Extended Interaction Klystron (EIK) is a high power, high efficiency and high gain vacuum electronic device (VED) based on high power klystron, which uses extended interaction cavity technology to achieve high power, high efficiency and high gain in millimeter wave and terahertz wave band. In this paper, the G-band high-power EIK high-frequency interaction circuit is designed and optimized, and the PIC three-dimensional particle simulation software is used to simulate it. The calculation results show that the terahertz power output with electronic efficiency of more than 6% and peak power of more than 278 W is obtained when the operating voltage is 18.4 kV, the beam current is 0.25 A and the center frequency is 234.2 GHz. The -3 dB bandwidth is more than 250 MHz and the gain is more than 34 dB. This work is of great significance to the development of high-power terahertz EIK and its application in national defense, satellite, high-resolution radar and other fields.
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