[1] UK Patent 589127, Improvements in or relating to apparatus for generating electrical impulses, Alan Dower Blumlein, filed October 10, 1941, granted June 12, 1947.
[2] Fitzsimmons, W., et al. "Experimental and theoretical investigation of the nitrogen laser." IEEE journal of quantum electronics 12.10 (1976): 624-633.
[3] Ashrafi, A., & Golnabi, H. (1994). Theoretical studies of electrical characteristics of the nitrogen laser. International Journal of Engineering, 7(3), 143-154.
[4] Hasson, V., H. M. Von Bergmann, and D. Preussler. "Effective glow discharge excitation of nitrogen lasers at gas pressures ranging from 0 to 5 bar." Applied Physics Letters 28.1 (1976): 17-18.
[5] Bergmann, Ernest E. "UV TEA laser with 760‐Torr N2." Applied Physics Letters 28.2 (1976): 84-85.
[6] Godard, Bruno. "A simple high-power large-efficiency N 2 ultraviolet laser." IEEE Journal of Quantum Electronics 10.2 (1974): 147-153.
[7] Herden, W. (1975). Compact high-power sub-nanosecond nitrogen and “open-air” lasers at 760 Torr. Physics Letters A, 54(1), 96-98.
[8] Hussain, M., & Imran, T. (2015). Design and construction of prototype transversely excited atmospheric (TEA) nitrogen laser energized by a high voltage electrical discharge. Journal of King Saud University-Science, 27(3), 233-238.
[9] Schwab, A., and F. Hollinger. "Compact high-power N 2 laser: Circuit theory and design." IEEE Journal of Quantum Electronics 12.3 (1976): 183-188.
[10] Stankov, K. A., S. Z. Kurtev, and I. Y. Milev. "High-energy output from a short-channel N2 laser." Optics communications 62.1 (1987): 32-34.
[11] Zhao, Caifeng, and Jianqiang Wu. "Modeling of Blumlein circuit and calculation of resistance and inductance of Laser Plasma." International Journal of Science, Technology and Society 2.6 (2014): 196-200.
[12] Hussain, M., Siddique, M. B., & Imran, T. (2015). Analysis of transversely electrical excited atmospheric (TEA) nitrogen laser and different parameters of the homemade ignition system. Science International, 27(6): 5001-5004.
[13] Molina, Luis L., et al. "Sub-nanosecond avalanche transistor drivers for low impedance pulsed power applications." PPPS-2001 Pulsed Power Plasma Science 2001. 28th IEEE International Conference on Plasma Science and 13th IEEE International Pulsed Power Conference. Digest of Papers (Cat. No. 01CH37251). Vol. 1. IEEE, 2001.
[14] Chen, Li, et al. "He–SrCl2 vapour laser excited by Blumlein discharge circuit." Optics communications 282.19 (2009): 3953-3956.
[15] Waynant, Ronald W. "A discharge‐pumped ArCl superfluorescent laser at 175.0 nm." Applied Physics Letters 30.5 (1977): 234-235.
[16] Twati, Mohamed O., and A. Ben Otman. "Distributed parameter analysis of a Blumlein-line N2 laser." Optics communications 99.5-6 (1993): 405-412.
[17] Hussain, Mukhtar, and Tayyab Imran. "Simulation of Pulsed High Voltage DC Source and Blumlein Transmission Line." IOSR Journal of Applied Physics 9(1):30-33
[18] Twati, Mohamed O., and Abubaker B. Otman. "A Modified Approach for the Blumlein-line Laser Power Calculations: Electrical and Optical Power Waveforms." Journal of Wireless Communications 2.1 (2017): 1-6
[19] Twati, Mohamed. "A full distributed parameter model of a Blumlein-line laser circuit including the effect of time varying spark-gap inductance and resistance." 2014 IEEE 27th Canadian Conference on Electrical and Computer Engineering (CCECE). IEEE, 2014.
[20] Habib, Bassam Hanna. "A simple model of spark gap discharge phase." Engineering and Technology Journal 31.9 Part (A) Engineering (2013): 1692-1704.