Abstract
Today, a series of pulsed lasers is known, which operate at transitions from a resonance to metastable level in metal atoms and ions. The most efficient and producing the highest output power in the visible region among all, is the copper vapor laser (CVL). Practically an efficiency of up to 1.5% and an average power of the order of 500 W are already achieved. One of the main difficulties for CVLs is imposed by the necessity to provide a sufficient concentration of copper atoms in the active volume. The temperature guaranteeing such copper atom concentration is ~1500C and that requires high-temperature materials for constructing laser tubes. The high temperature causes not only technical difficulties but also complications of a more general nature, since the lower laser levels that are metastable, can be significantly populated at high temperatures. The difficulties associated with introducing the Cu atoms into the active volume by heating have compelled researchers to seek other methods for creating a high density of copper atoms in the active volume.
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References
Walter, W.T., Soliemene, N., and Piltch, M (1966) Efficient pulsed gas discharge lasers, Journal of Quantum Electronics QE-2, 474–479.
Liu, C.S., Sucov, E.W., and Weaver, L.A. (1973) Copper superradiant emission from, pulsed discharges in copper iodide vapor, Appl. Phys. Lett. 23, 92–93.
Chen, C.J., Nercheim, N.M., and Russell, G.R. (1973) Double-Discharge Copper Vapor Laser with Copper Chloride as a Lasant, Appl. Phys. Lett. 23, 514–515.
Sabotinov, N.V., Telbizov, P.K., and Kalchev, S.D. (1975), Bulg. Patent N28674.
Shuhtin, A.M., Mishakov, V.G., Fedotov, G.A., et al. (1975) Observation of Dissociation of Copper Halide Molecules in a Pulsed Discharge by the Interference Method, Optica and Spectroskopy 39, 785–786.
Akirtava, O.S., Dzhikiya, V.L., and Olainik, Yn.M. (1975) Laser Based on CuI Vapors in Copper Halide Vapors, Kvant. Electron. 2, 1831–1832.
Kazaryan, M.A., Petrash, G.G., and Trofimov, A.N. (1980) Comparative Characteristics of Copper, Copper Hloride, and Copper Bromide Vapor Lasers, Kvant. Electron. 7, 583–592.
Gabay, S., Smilanski, I., Levin, L.A., and Erez, G. (1977) Comparison of CuCl, CuBr, and CuJ as Lasants for Copper Vapor Lasers, IEEE J. Quantum Electron. QE-13, 364–366.
Guido, M., Baldueci, G., and Giglli, G. (1971) Mass spectrometric study of vaporization of cuprous chloride and the dissociation on energy of Cu3Cl3, Cu4Cl4, and Cu5Cl5, J. Chem. Phys. 55, 4556–4572.
Kazaryan, M.A., Petrash, G.G., and Trofimov, A.N. (1987) Pulsed Copper Halide Vapor Lasers, Trudi FIAN 181, 78–170.
Sabotinov, N.V., Kalchev, S.D., and Telbizov, P.K. (1975) Copper Vapor Laser with a high-pulse repetition frequency, Kvant. Electron. 2, 1822–1834.
Kazaryan, M.A., and Trofimov, A.N. (1978) Gas-Discharge Tubes for Metal Halide Vapor Lasers, Kvant. Electron. 5, 2471–2472.
Wang, Y., Sun, W., Yao, Z., and Shi, B. (1985) A Practical CuBr Laser with Flowing Buffer Gas, Optics Commun. 55, 345–346.
Davis, P.E., Sabotinov, N.V., Vuchkov, N.K., and Astadjov, D.N. (1989), Commonwealth of Australia, Patents Act 1952.
Astadjov, D.N., Sabotinov, N.V., and Vuchkov, N.K. (1985) Effect of Hydrogen on CuBr Laser Power and Efficiency, Optics Communication 56, 279–282.
Bokhan, P.A., Silantiev, V.I., and Solomonov, V.I. (1980) On a Mechanism of Limitation of the Lasing Pulse Repetition Rate in a Copper-Vapor Laser, Kvant. Electron. 7, 1264–1269.
Huang, Z.G., Namba, K., and Shimizu, F. (1986) Influence of Molecular Gases on the Output Characteristics of a Copper Vapor Laser, Japan J. Appl. Phys. 25, 1677–1679.
Huang, Z.G., Shan, H.Y., and Wang, H.H. (1987) A Gold-Vapor Laser Using Ne-H2 as a Buffer Gas, Appl. Phys. B 44, 57–59.
Livingstone, E.S., Jones, D.R., Maitland, A., and Little, C.E. (1992) Characteristics of a copper bromide Inser with following Ne-HBr buffer gas, Optical and Quantum Electronics 24, 73–82.
Sabotinov, N.V., Vuchkov, N.K., and Astadjov, D.N. (1990) Copper Bromide Lasers — Discharge Tubes and Lifetime Problems, High-Power Gas Laser, Proceedings SPIE 1225, Los Angeles.
Elaev, V.F., Lyakhana, G.D., and Pelenkov, V.P. (1989) CuBr Laser with Average Lasing Power Exceeding 100 W, Atm. Opt. 2, 1045–1047.
Vuchkov, N.K., Astadjov, D.N., and Sabotinov, N.V. (1991) A new circuit for CuBr laser excitation, Optical and Quantum Electronics 23, S549–S553.
Vuchkov, N.K., Astadjov, D.N., and Sabotinov, N.V. (1994) Influence of the Excitation Circuits on the CuBr Laser Performance, IEEE J. of Quantum Electronics 30, 750–758.
Vorobev, V.B., Kalinin, S.V., Klimovski, I.I., Kostadinov, I., Krestov, V.A., Kabasov, N.V., and Marasov,. (1991) A copper vapor laser with average specific emission power above 1 W/cm3, Kvant. Electronika 18, 1178–1180.
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© 1996 Kluwer Academic Publishers
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Sabotinov, N.V. (1996). Copper Bromide Lasers. In: Little, C.E., Sabotinov, N.V. (eds) Pulsed Metal Vapour Lasers. NATO ASI Series, vol 5. Springer, Dordrecht. https://doi.org/10.1007/978-94-009-1669-2_11
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DOI: https://doi.org/10.1007/978-94-009-1669-2_11
Publisher Name: Springer, Dordrecht
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