[1] Sanford T W L, Allshouse G O, Marder B M, et al. Improved symmetry greatly increases X-ray power from wire-array Z-pinches［J］. Physical Review Letters 1996, 77 (25):5063-5066.

[2] Deeney C, Nash T J, Spielman R B, et al. Power enhancement by increasing the initial array radius and wire number of tungsten Z-pinch［J］. Physical Review E, 1997, 56(5): 5945-5958.

[3] Sanford T W L, Mock R C, Nash T J, et al. Systematic trends in X-ray emission characteristics of variable-wire-number, fixed-mass, aluminum-array, Z-pinch implosions［J］. Physics of Plasmas, 1999, 6(4):1270-1293.

[4] Bailey J E, Chandler G A, Cohen D, et al. Radiation science using Z-pinch X rays［J］. Physics of Plasmas, 2002, 9(5):2186-2194.

[5] Nash T J, Derzon M S, Chandler G A, et al. High-temperature dynamic hohlraums on the pulsed power driver Z［J］. Physics of Plasmas, 1999, 6(5):2023-2029.

[6] Hammer J H, Tabak M, Wilks S C, et al. High yield inertial confinement fusion target design for a Z-pinch-driven hohlraum［J］. Physics of Plasmas, 1999, 6(5):2129-2136.

[7] Sanford T W L, Olson R E, Mock R C, et al. Dynamics of a Z-pinch X-ray source for heating inertial-confinement-fusion relevant hohlraums to 120~260eV［J］. Physics of Plasmas, 2000, 7(11): 4669-4682.

[8] Bennett G R, Vesey R A, Cuneo M E, et al. Symmetric inertial confinement fusion capsule implosions in a high-yield-scale double-Z-pinch-driven hohlraum on Z［J］. Physics of Plasmas, 2003, 10(9):3717-3727.

[9] Slutz S A, Bailey J E, Chandler G A, et al. Dynamic hohlraum driven inertial fusion capsules［J］. Physics of Plasmas, 2003, 10(5):1875-1882.

[10] Vesey R A, Cuneo M E, Porter J L, et al. Radiation symmetry control for inertial confinement fusion capsule implosions in double Z-pinch hohlraums on Z［J］. Physics of Plasmas, 2003, 10(5):1854-1860.

[11] Stygar W A, Cuneo M E, Vesey R A. Theoretical Z-pinch scaling relations for thermonuclear-fusion experiments［J］. Physical Review E-Statistical, Nonlinear, and Soft Matter Physics, 2005, 72(2): 1-21.

[12] Rochau G E, Morrow C W. A concept for containing inertial fusion energy pulses in a Z-pinch-driven power plant［J］. Fusion Science and Technology, 2003, 43(3):447-455.

[13] Olson R E. Target physics scaling for Z-pinch inertial fusion energy［J］. Fusion Science and Technology, 2005, 47(4) :1147-1151.

[14] Linford R, Betti R, Dahlburg J. A review of the U. S. department of energy’s inertial fusion energy program［J］. Journal of Fusion Energy, 2003, 22(2): 93-126.

[15] Meyerhofer D D, Sethian J D, Lindl J D. The US inertial confinement fusion (ICF) ignition programme and the inertial fusion energy (IFE) programme［J］. Plasma Physics and Controlled Fusion, 2003, 45(12): A217-A234.

[16] Vesey R A, Herrmann M C, Lemke R W, et al. Target design for high fusion yield with the double Z-pinch-driven hohlraum［J］. Physics of Plasmas, 2007, 14: 056302.

[17] Kingsep A, Anan'ev S, Bakshaev Y, et al. Pulsed power experiments at the Kurchatov institute aimed at ICF［C］//Proc 14th IEEE International Pulsed Power Conference. 2007:1761-176.

[18] Sharkov B Y. Status and perspective of nuclear fusion energy with inertial confinement［M］. Beijing: Atomic Energy Publishing Company, 2008.

[19] 彭先觉, 华欣生. 快Z箍缩--有前景的聚变能源新途径［J］. 中国工程学,2008, 10(1): 47-53.(Peng Xianjue, Hua Xinsheng. Fast Z-pinch-A new approach for promising fusion energy. Engineering Science, 2008, 10(1): 47-53)

[20] 彭先觉. Z箍缩-核聚变-核能源: 一条值得探求的科技之路［R］. 中国工程物理研究院年度科技报告. 2008.(Peng Xianjue, Z-pinch, nuclear fusion, nuclear energy-A pursuable road of science and technology. Annual Science and Technology Report of CAEP. 2008)

[21] Peng Xianjue. Introduction of fusion-fission mixture reactor based on Z-pinch［C］//2010 Sino-Russian Z-pinch IFE Conf. 2010.

[22] Martin T H. Design and performance of the Sandia laboratories Hermes II flash X-ray generator［J］. IEEE Trans on Nucl Sci, 1969, 16(3): 59.

[23] 王淦昌. 高功率粒子束及其应用［C］//全国高功率粒子束十年文集. 1995: 1-21.(Wang Ganchang. High power particle beams and their applications//The Dacade Selected Works of High Pulsed Power in China. 1995:1-21)

[24] Frazier G B, Ashby S R, Demeter L J, et al. Eagle and double-eagle［C］//Proc 4th IEEE International Pulsed Power Conference. 1983:583-589.

[25] Boller J R, Burton J K, Jr Shipman J D. Status of the upgraded version of the NRL Gamble II pulse power generator ［C］//Proc 2nd IEEE International Pulsed Power Conference.1979:205-208.

[26] 邱爱慈. 闪光-II加速器［C］//全国高功率粒子束十年文集. 1995:22-34.(Qiu Aici. Flash-II Accelerator//The Dacade Selected Works of High Pulsed Power in China. 1995: 22-31)

[27] Johnson D L. Initial Proto II pulsed power tests［C］//Proc 1st IEEE International Pulsed Power Conference.1976.

[28] Basenkov S V, Gusev O A, Istomin J A, et al. Accelerator module of “Angara-5”［C］//Proc 2nd IEEE International Pulsed Power Conference. 1979:25-30.

[29] Bloomquist D D, Stinnett R W, McDaniel D H, et al. Saturn, a large area X-ray simulation accelerator［C］//Proc 6th IEEE International Pulsed Power Conference. 1987:310-317.

[30] Turman B N, Martin T H, Neau E L, et al. PBFA II, a 100 TW pulsed power driver for the inertial confinement fusion program［C］//Proc 5th IEEE International Pulsed Power Conference.1985:155-161.

[31] Spielman R B, Long F, Martin T H, et al. PBFA II-Z: A 20-MA driver for Z-pinch experiments［C］//Proc 10th IEEE International Pulsed Power Conference. 1995:396-404.

[32] Weinbrecht E A, McDaniel D H, Bloomquist D D. The Z refurbishment project (ZR) at Sandia national laboratories［C］//Proc 14th IEEE International Pulsed Power Conference. 2003:157-162.

[33] Ramirez J J, Prestwich K R, Burgess E L, et al. The Hermes-Ⅲ program［C］//Proc 6th IEEE International Pulsed Power Conference. 1987:294-299.

[34] Bastrikov A N, Kim A A, Kovalchuk B M, et al. Fast primary energy storage based on linear transformer scheme［C］//Proc 11th IEEE International Pulsed Power Conference. 1997: 489-497.

[35] Kim A A, Kovalchuk B M, Bastrikov A N, et al. 100 ns current rise time LTD stage［C］//Proc 13th IEEE International Pulsed Power Conference. 2001:294-299.

[36] Kim A A, Bastrikov A N, Volkov S N, et al. 100 GW fast LTD stage［C］//Proc 10th Symposium on High Current Electronics. 2004:141-144.

[37] Rogowski S T, Fowler W E. Peration and performance of the first high current LTD at Sandia national laboratories［C］//Proc 15th IEEE International Pulsed Power Conference. 2005:155-157.

[38] Sandia news［EB/OL］. www.sandia.gov.

[39] 周良骥, 邓建军, 陈林, 等. 快脉冲直线变压器驱动源模块的原理及实验［J］. 强激光与粒子束, 2006, 18 (10):1749-1752. (Zhou Liangji, Deng Jianjun, Chen Lin, et al. Design and experiment of linear transformer driver stage. High Power Laser and Particle Beams, 2006, 18 (10):1749-1752)

[40] 周良骥. 快脉冲直线变压器驱动源(LTD)技术初步研究［D］. 北京：中国工程物理研究院北京研究生部,2006.(Zhou Liangji. Initial research of fast linear transformer driver(LTD). Beijing: Graduated School of China Academy of Engineering Physics, 2006)

[41] 周良骥, 邓建军, 陈林, 等. 国际快脉冲直线变压器驱动源技术研究进展［J］. 强激光与粒子束, 2008, 20 (12):1947-1953. (Zhou Liangji, Deng Jianjun, Chen Lin, et al. Status of linear transformer driver research. High Power Laser and Particle Beams, 2008, 20 (12):1947-1953)

[42] 邹文康, 周良骥, 陈林,等. 100 GW直线变压器驱动源的物理设计与模拟［J］. 强激光与粒子束,2008,20(2):327-330.(Zou Wenkang, Chen Lin, et al. Physical design and simulation for a 100 GW LTD system. High Power Laser and Particle Beams, 2008,20 (2):327-330)

[43] 周良骥, 邓建军, 陈林, 等. 1 MA直线型变压器驱动源模块设计［J］. 强激光与粒子束, 2010, 22 (3):465-468. (Zhou Liangji, Deng Jianjun, Chen Lin, et al. Design of 1 MA linear transformer driver stage. High Power Laser and Particle Beams, 2010, 22 (3):465-468)

[44] 陈林,周良骥,谢卫平,等. 100 kA快脉冲直线变压器驱动源模块［J］. 强激光与粒子束, 2010, 22 (6):1407-1410. (Chen Lin, Zhou Liangji, Xie Weiping, et al. Research on 100 kA fast linear transformer driver stage. High Power Laser and Particle Beams, 2010, 22 (6):1407-1410)

[45] 梁天学,姜晓峰,孙凤举,等. 300 kA直线型变压器驱动源模块实验研究［J］. 强激光与粒子束, 2012, 24 (3):655-658. (Liang Tianxue, Jiang Xiaofeng, Sun Fengju, et al. Experimental investigation of 300 kA fast linear transformer driver stage. High Power Laser and Particle Beams, 2012, 24 (3):655-658)

[46] 孙凤举,邱爱慈,姜晓峰,等. 20 MA/300 ns Marx型直接驱动Z箍缩脉冲源［J］. 强激光与粒子束, 2012, 24(4):933-937. (Sun Fengju, Qiu Aici, Jiang Xiaofeng, et al. 20 MA/300 ns direct-driven Z-pinch Marx-based pulsed power driver. High Power Laser and Particle Beams, 2012, 24(4):933-937)

[47] 丛培天,邱爱慈. 快脉冲直线变压器气体开关技术［J］. 强激光与粒子束, 2012, 24 (6):1263-1268. (Cong Peitian, Qiu Aici. Review on gas switches developed for fast linear transformer driver. High Power Laser and Particle Beams, 2012, 24(6):1263-1268)

[48] 孙铁平,丛培天,曾正中,等. 快前沿直线脉冲变压器单级模块开关触发时延分散性实验研究［J］. 强激光与粒子束, 2011, 23(12):3426-3430.(Sun Tieping, Cong Peitian, Zeng Zhengzhong, et al. Self-breakdown charicteristic of multi-gap switch for fast linear transformer driver. High Power Laser and Particle Beams, 2011, 23(12):3426-3430)

[49] Alexandrov V V, Azizov E A, Alikhanov S G, et al. Superfast liner implosion physics study and development of X-ray facility based on 900 MJ inductive store［C］//Proc 15th IEEE International Pulsed Power Conference. 1999:754-757.

[50] Grabovski E. Investigations of thermonuclear power engineering based on Z-pinches in Russia and studies carried out on the Angara-5 facility［C］//CAEP Annual Conference on Science & Technology. Mianyang, 2012.

[51] Grabovski E. Project of thermonuclear generator Baikal［C］//International Conference 16th Khariton’s Topical Scientiflc Readings “High Power Electrophysics” . 2014.

[52] Keith Matzen, Mark Herrmann, Michael Cuneo, et al. Pulsed power inertial fusion energy［C］//Prospects for ICF Energy Systems NAS. 2011.

[53] Stygar W A, Cuneo M E, Headley D I, et al. Architecture of petawatt-class Z-pinch accelerators［J］. Physical Review Special Topics-Accelerators and Beams, 2007,10: 030401.

[54] Olson C L, Mazarakis M G, Fowler W E,et al. Recyclable transmission line (RTL) and linear transformer driver (LTD) development for Z-pinch inertial fusion energy (Z-IFE) and high yield［R］. SAND2007-0059, 2007.

[55] 邓建军, 石金水, 曹科峰,等. 流体物理研究所高功率脉冲技术研究进展［J］. 物理, 2009, 38 (12) :901-907.(Deng Jianjun, Shi Jinshui, Cao Kefeng, et al. Pulsed power research at the institute of fluid physics. Physics, 2009, 38 (12) :901-907)

[56] Xia Minghe, Xie Weiping, Li Hongtao, et al. Investigation of a lower prepulse water dielectric self-break switch［C］//Proc 15th International Conference on High-Power Particle Beams. 2004:348-351.

[57] He An, Li Fengping, Deng Jianjun. Primary investigation into the laser triggering multi-gap multi-channel gas switch in a single test module facility［J］. Plasma Science and Technology, 2006, 8(5):602-606.

[58] 李洪涛, 王玉娟, 夏明鹤, 等. 高功率Z-pinch装置5MV主开关及开关区设计［J］. 强激光与粒子束, 2006, 18 (3) : 459-462. (Li Hongtao, Wang Yujuan, Xia Minghe, et al. Design of the switch and switch section for high power Z-pinch facility. High Power Laser and Particle Beams, 2006, 18 (3) : 459-462)

[59] Li Hongtao, Deng Jianjun, Wang Yujuan. Development of a 4 MV laser-triggered multi-stage switch［J］.Plasma Science and Technology, 2008, 10(2): 235-239.

[60] Li Hongtao, Xie Weiping, Feng Shuping. Development of a high-reliability low-jitter 6 MV/300 kJ Marx generator［J］.Plasma Sources Sci Technol, 2008,17:015001.

[61] Li Hongtao, Feng Shuping, Xie Weiping. Development of the prototype module of the 6MV/10MA Z-pinch test stand［C］//Proc 17th International Conference on High Power Particle Beams. 2008.

[62] Xia Minghe, Li Hongtao, Feng Shuping. Investigation of 4 MV coaxial-triplate water self-breaking switch［C］//Proc 17th International Conference on High Power Particle Beams. 2008.

[63] 丰树平,李洪涛,谢卫平, 等. Z箍缩初级实验平台模块样机［J］. 强激光与粒子束, 2009, 21(3):463-467. (Feng Shuping, Li Hongtao, Xie Weiping, et al. Development of prototype module of Z-pinch primary test stand. High Power Laser and Particle Beams, 2009,21(3):463-467)

[64] 丰树平,李洪涛,曹文彬. 等. Z箍缩实验装置高压低抖动Marx发生器［J］. 强激光与粒子束, 2009,21(1): 152-156. (Feng Shuping, Li Hongtao, Cao Wenbin, et al. High voltage low jitter Marx generator of prototype module of primary test stand. High Power Laser and Particle Beams, 2009,21(1): 152-156)

[65] 关永超,王勐,丰树平,等. 高功率低阻抗三平板传输线的设计［J］. 强激光与粒子束, 2010, 22(3):519-523. (Guan Yongchao, Wang Meng, Feng, Shuping, et al. Design for high power and low impedance triplate transmission line. High Power Laser and Particle Beams, 2010,22(3):519-523)

[66] 夏明鹤,计策,王玉娟, 等. PTS装置脉冲输出开关［J］. 强激光与粒子束, 2012, 24(10):2516-2520. (Xia Minghe, Ji Ce, Wang, Yujuan, et al. Pulse output switch of primary test stand. High Power Laser and Particle Beams, 2012,24(10):2516-2520)

[67] 夏明鹤,计策,王玉娟,王勐. 等. PTS装置工作模式及波形调节［J］. 强激光与粒子束, 2012, 24(11):2768-2772. (Xia Minghe, Ji Ce, Wang Yujuan, et al. Operation models and waveform shaping of primary test stand. High Power Laser and Particle Beams, 2012, 24(11):2768-2772)

[68] 夏明鹤,姚斌,傅贞, 等. 4 MV同轴-三平板型水介质自击穿开关的电路模拟与实验［J］. 强激光与粒子束, 2010, 22(7):1292-1296. (Xia Minghe,Yao Bin, Fu Zhen, et al. Experiments and simulations of 4 MV coax-to-triplate multi-channel water self-breaking switch. High Power Laser and Particle Beams, 2010, 22(7):1292-1296)

[69] 计策,丰树平,夏明鹤,等. Marx发生器同步性对PTS装置性能的影响［J］. 强激光与粒子束, 2012, 24(3):685-688. (Ji Ce, Feng Shuping, Xia Minghe, et al. Effect of synchronization of Marx generators on primary test stand. High Power Laser and Particle Beams, 2012, 24(3):685-688)

[70] 何安,任济,丰树平, 等. Z箍缩初级实验平台的激光触发系统［J］. 强激光与粒子束, 2012, 24(4):839-842. (He An, Ren Ji, Feng Shuping, et al. Design and experimental verify of laser trigger system for Z-pinch primary test stand. High Power Laser and Particle Beams, 2012, 24(4):839-842)

[71] 王勐,李逢,卫兵, 等. PTS装置绝缘堆工作性能的初步分析［J］. 强激光与粒子束, 2013,25(10):2767-2771.(Wang Meng, Li Feng, Wei Bing, et al. Primary performance of PTS vacuum insulator stack. High Power Laser and Particle Beams, 2013, 25 (10) : 2767-2771)

[72] Deng Jianjun, Xie Weiping, Feng Shuping, et al. Initial performance of the primary test stand［J］.IEEE Trans on Plasma Science,2013, 41(10): 2580-2583.

[73] Deng Jianjun, Xie Weiping, Shi Jinshui, et al. Overview of pulsed power researches at CAEP［C］//The 41st IEEE International Conference on Plasma Science and the 20th International Conference on High-Power Particle Beams. 2014.

[74] 王勐,周良骥,邹文康, 等. 混合模式直线型变压器驱动源模块［J］. 强激光与粒子束,2012,24(5): 1239-1243. (Wang Meng, Zhou Liangji, Zou Wenkang, et al. Mixed-mode LTD modul. High Power Laser and Particle Beams, 2012,24(5): 1239-1243)

[75] Baranchikov E I, Gordeev A V, Korolev V D, et al. Magnetic self-insulation of electron beams in vacuum lines［J］. Sov Phys-JETP, 1978, 48(6):1058-1068.

[76] Mesyats G A. Pulsed power. New York: Kluwer Academic/Plenum Publishers, 2005:146-146.

[77] Di Capua M S, Goerz D A, Freytag E K. Vacuum transmission lines for pulse sharpening and diagnostics applications［C］//Proc 6th IEEE International Pulsed Power Conference. 1987: 393-396.

[78] Galstjan E A, Kazanskiy LN, Khomenko A I. Study of electromagnetic chock wave in modified MITL［C］//Proc 11th IEEE International Pulsed Power Conference. 2001: 1657-1662.

[79] Martin T E. Pulsed power for fusion［C］//Proc 2nd IEEE International Pulsed Power Conference. 1979:2-8.

[80] VanDevender J P. Self magnetically insulated power flow ［C］//Proc 2nd IEEE International Pulsed Power Conference.1979:55-60.

[81] Baranchikov E I, Gordeev A V, Korolev V D, et al. Magnetic self-insulation of vacuum transmission lines［C］//Proc 2nd International Topical Conference on High Power Electron and Ion Beam Research and Technology. 1977:3-21.

[82] Van Devender J P. Long self-magnetically insulated power transport experiments［J］. J Appl Phys, 1979, 50(6): 3928-3934.

[83] Parker R K, Anderson R E, Duncan C V. Plasma-induced field emission and the characteristics of high-current relativistic electron flow［J］. J Appl Phys, 1974,45(6):2463-2479.

[84] Stinnett R W, Palmer M A, Spielman R B, et al. Small gap experiments in magnetically insulated transmission lines［J］. IEEE Trans on Plasma Sci, 1983,11(3):216-219.

[85] Ivanov V V, Laca P J, Bauer B S, et al. Investigation of plasma evolution in a coaxial small-gap magnetically insulated transmission line［J］. IEEE Trans on Plasma Sci, 2004, 32(5):1843-1848.

[86] Stinnett R W, Allen G R, Davis H P, et al. Cathode plasma formation in magnetically-insulated transmission lines［J］. IEEE Trans on Electrical Insulation, 1985, 20(4): 807-809.

[87] Bakshaev Y L, Bartov A V, Blinov P I, et al. Study of the Dynamics of the electrode plasma in a high-current magnetically insulated transmission line［J］. Plasma Physics Reports, 2007, 33(4): 291-303.

[88] Van Devender J P, Langston W L, Pasik M F, et al. New self-magnetically insulated connection of multi-level accelerators to a common load ［C］//Proc 18th IEEE International Pulsed Power Conference. 2011:1003-1008.

[89] Rose D V, Welch D R, Hughes T P. Plasma evolution and dynamics in high-power vacuum-transmission-line post-hole convolutes［J］. Phys Rev ST Accel Beams, 2008, 11: 060401.

[90] Jr Mendel C W, Pointon T D, Savage M E, et al. Losses at magnetic nulls in pulsed-power transmission line systems［J］. Phys Plasmas, 2006, 13: 043105.

[91] Schumer J W, Ottinger P F, Olson Craig L. Power flow in a magnetically insulated recyclable transmission line for a Z-pinch-driven inertial-confinement-fusion energy system［J］. IEEE Trans on Plasma Sci, 2006, 34(6): 2652-2668.

[92] Seidel D B, Jr Mendel C W, Savage M E. Low impedance Z-pinch drivers without post-hole convolute current adders［R］. SAND2009-6133, 2009.