[1] [1] Benfd J, Swegle J A, Schamiloglu E. High power microwaes[M]. 3rd ed. London: Tayl & Francis Group, 2015.

[2] Walter J W, Lynn C F, Dickens J C. Operation of a sealed-tube-vircator high-power-microwave source[J]. IEEE Trans Plasma Science, 40, 1618-1621(2012).

[3] Xun Tao, Yang Hanwu, Zhang Jiande, et. al. A ceramic radial insulation structure for a relativistic electron beam vacuum diode[J]. Review of Scientific Instruments, 79, 063303(2008).

[4] Xun Tao, Zhang Jiande, Yang Hanwu. A distributed pumping model for a repetitive operated magnetically insulated transmission line oscillator[J]. Journal of Applied Physics, 113, 164505(2013).

[5] Xun Tao, Fan Yuwei, Yang, Hanwu. A vacuum-sealed, giga-watt class, repetitively pulsed high-power microwave source[J]. Journal of Applied Physics, 121, 234502(2017).

[6] Xun Tao, Zhang Jiande, Yang Han-Wu. Hydrodynamic loading of ceramic components due to pulsed discharge in water[J]. IEEE Trans Plasma Science, 37, 1975-1979(2009).

[7] Xun Tao, Yang Hanwu, Zhang Jiande. A high-vacuum high-electric-field pulsed power interface based on a ceramic insulator[J]. IEEE Trans Plasma Science, 43, 4130-4135(2015).

[8] Krasik Y E, Yarmolich D, Gleizer J Z. Pulsed plasma electron sources[J]. Physics of Plasmas, 16, 7103(2009).

[9] Liu Guozhi, Sun Jun, Shao Hao. Research on an improved explosive emission cathode[J]. Journal of Physics D: Applied Phyics, 42, 5204-5209(2009).

[10] Zhang Jun, Jin Zhenxing, Yang Jianhua. Recent advance in long-pulse HPM sources with repetitive operation in S-, C-, and X-bands[J]. IEEE Trans Plasma Science, 39, 1438-1445(2011).

[11] Shiffler D, Haworth M, Cartwright K. Review of cold cathode research at the Air Force Research Laboratory[J]. IEEE Trans Plasma Science, 36, 718-728(2008).

[12] Levine J S, Harteneck B D. Repetitively pulsed relativistic klystron amplifier[J]. Applied Physics Letter, 65, 2133-2135(1994).

[13] Xun Tao, Yang Hanwu, Zhang Jiande. Effects of vacuum pressures on the performance of a velvet cathode under repetitive high-current pulse discharges[J]. Vacuum, 85, 322-326(2010).

[14] Xun Tao, Zhang Jiande, Yang Hanwu. Characteristics of a velvet cathode under high repetition rate pulse operation[J]. Physics of Plasmas, 16, 103106(2009).

[15] Xun Tao, Zhao Xuelong, Li Gongyi. High-current, pulsed electron beam sources with SiC nanowire cathodes[J]. Vacuum, 125, 81-84(2015).

[16] Xun Tao, Zhang Jiande, Li Gongyi. Performance of a SiC-nanowire-based explosive-emission pulsed plasma electron source[J]. Applied Physics Express, 9, 106001(2016).

[17] Friedman M, Myers M C, Chan Y. Properties of ceramic honeycomb cathodes[J]. Applied Physics Letter, 92, 141501(2008).

[18] Dunaevsky A, KrasikYa E, Feisteiner J. Electron diode with a large area ferroelectric plasma cathode[J]. Journal of Applied Physics, 90, 3689-3698(2001).

[19] KrasikYa E, Gleizer J Z, Yarmolich D. Characterization of the plasma on dielectric fiber (velvet) cathodes[J]. Journal of Applied Physics, 98, 093308(2005).

[23] Ju Jinchuan, Fan Yuwei, Zhong Huihuang. An improved X-band magnetically insulated transmission line oscillator[J]. Physics of Plasmas, 16, 073103(2009).

[24] Cai Dan, Liu Lie, Ju Jinchuan. Simulative research on the anode plasma dynamics in the high-power electron beam diode[J]. Physics of Plasmas, 22, 073108(2015).

[25] [25] Mesyats G A. Cathode phenomena in a vacuum disge: The breakdown, the spark the Arc[M]. Moscow: Nauka, 2000.

[26] Xun Tao, Yang Hanwu, Zhang Jun. Properties of an intensive relativistic electron beam collector under repetitive pulse operation[J]. IEEE Trans Plasma Science, 44, 957-962(2016).

[27] Li GongYi, Li Xiaodong, Chen Zhongdao. Large areas of centimeters-long SiC nanowires synthesized by pyrolysis of a polymer precursor by a CVD route[J]. Journal of Physics and Chemistry C, 113, 17655-17660(2009).

[28] [28] Shultis J K, Faw R E. Fundamentals of nuclear science engineering[M]. New Yk: Dekker, 2002.