Electric discharge CO lasers

Gas Lasers

Volumn , Issue , 2016, Pages 201-237

  Ionin, Andrey A ^a  

^a LEBEDEV PHYSICAL INSTITUTE   (Russian Federation)

Author keywords

[No Author keywords available]

Indexed keywords

CO LASER;

ELECTRIC DISCHARGES;

EID: 85051275659     PISSN: None     EISSN: None     Source Type: Book    
DOI: None     Document Type: Chapter

References (194)

1. Legay, F. and Legay-Sommair, N., The possibility of obtaining an optical maser using vibrational energy of gases excited by active nitrogen, Acad. Sci.(Paris) Comp. Rend., 259B, 99, 1964.
2. + vibrational-rotational transitions of CO, Appl. Phys. Lett., 5, 81, 1964.
3. 2O), Acad. Sci.(Paris) Comp. Rend., 260B, 3339, 1965.
4. Patel, C.K.N., Vibrational-rotational laser action in carbon monoxide, Phys. Rev., 141, 71, 1966.
5. 2-He laser, Appl. Phys. Lett., 13, 409, 1968.
6. Osgood, R.M., Jr. and Nichols, E.R., A powerful CO laser, Laser Focus, 5, 37, 1969.
7. Eppers, W.C., Jr., Osgood, R.M., Jr., and Greason, P.R., 75 Watt CW carbon monoxide laser, IEEE J. Quant. Electron., 6, 4, 1970.
8. Osgood, R.M., Jr., Eppers, W.C., Jr., and Nichols, E.R., An investigation of the high-power CO laser, IEEE J. Quant. Electron., 6, 145, 1970.
9. Osgood, R.M., Jr., Nichols, E.R., and Eppers, W.C., Jr., Further studies of the high-power CO laser at 5 mm, IEEE J. Quant. Electron., 6, 173, 1970.
10. Treanor, C.A., Rich, J.W., and Rehm, R.G., Vibrational relaxation of anharmonic oscillators with exchange-dominated collisions, J. Chem. Phys., 48, 1798, 1968.
11. Bhaumik, M.L., Lacina, W.B., and Mann, M.M., Characteristics of CO laser, IEEE J. Quant. Electron., 8, 150, 1972.
12. Kan, T. and Whitney, W., Forced-convective flow carbon monoxide laser, Appl. Phys. Lett., 21, 213, 1972.
13. 2 by electron impact, Phys. Rev., 135, 988, 1964.
14. Patel, B.S., Collisional broadening of high pressure CO and CO2 transition, Phys. Lett., 45A, 137, 1973.
15. + ground state of CO, J. Chem. Phys., 102, 5220, 1995.
16. Yardley, J.T., Laser action in highly-excited vibrational levels of CO, J. Molec. Spectr., 35, 314, 1970.
17. Djeu, N., CW single line CO laser on the V = 1→V = 0 band, Appl. Phys. Lett., 23, 309, 1973.
18. Bergman, R.C. and Rich, J.W., Overtone bands lasing at 2.7-3.1 mm in electrically excited CO, Appl. Phys. Lett., 31, 597, 1977.
19. Basov, N.G. et al., Cooled electron-beam-controlled laser based on two-quantum transitions in CO molecules, Sov. J. Quant. Electron., 8, 1058, 1978.
20. Gromoll-Bohle, M., Bohle, W., and Urban, W., Broadband CO laser emission on overtone transitions ΔV = 2, Opt. Commun., 69, 409, 1989.
21. Basov, N.G. et al., Efficient pulsed first-overtone CO laser operating within the spectral range of 2.5-4.2 mm, IEEE J. Quant. Electron., 36, 810, 2000.
22. Ionin, A. et al., Alternation of vibrational band intensities in multiline pulsed first-overtone CO laser spectrum, Opt. Commun., 178, 377, 2000.
23. Bubyakin, G.B., Eletsky, A.V., and Populovsky, V.F., Carbon monoxide laser, Uspekhy Fizicheskih Nauk., 106, 723, 1972 (in Russian).
24. Osgood, R.M., Jr., Nichols, E.R., and Eppers, W.C., Jr., Q-switching of the carbon monoxide laser, Appl. Phys. Lett., 13, 409, 1968.
25. Hopf, F.A., Short pulse energy extraction in CO amplifiers, Opt. Commun., 9, 38, 1973.
26. Nurmikko, A.V., Mode-locking of a TEA CO laser, Appl. Phys. Lett., 26, 465, 1974.
27. Stephenson, J.S., Vibrational excitation and relaxation of CO (V = 1) and CO (V = 2) states, Appl. Phys. Lett., 22, 576, 1973.
28. 2 between 300 K and 80 K, Chem. Phys., 45, 203, 1980.
29. Sobolev, N.N. and Sokovikov, V.V., Carbon monoxide laser. Mechanism of inversion population formation, Uspekhy Fizicheskih Nauk., 110, 191, 1972 (in Russian).
30. Basov, N.G. et al., Theoretical study of characteristics of EBSD CO laser, Preprint #1 of the Lebedev Physical Institute, Moscow, 1976.
31. Rich, J.W., Kinetic modeling of the high-power carbon monoxide laser, J. Appl. Phys., 42, 2719, 1971.
32. Center, R.E. and Caledonia, G.E., Theoretical description of the electrical CO laser, Appl. Phys. Lett, 19, 211, 1971.
33. Yardley, J.T., Population inversion and energy transfer in CO lasers, Appl. Opt., 10, 1760, 1971.
34. Caledonia, G.E. and Center, R.E., Vibrational distribution functions in anharmonic oscillators, J. Chem. Phys., 55, 552, 1971.
35. Lacina, W.B. and Mann, M.M., Transient oscillator analysis of high-pressure electrically excited CO laser, Appl. Phys. Lett., 21, 224, 1972.
36. Nighan, W.L., Electron kinetic processes in CO lasers, Appl. Phys. Lett., 20, 96, 1972.
37. Hall, R.J. and Eckbreth, A.C., Kinetic modeling of CW CO laser, IEEE J. Quant. Electron., 10, 580, 1974.
38. Smith, N.S., Hassan, H.A., and McJuville, R.M., Small-signal gain calculations for high-flow CW CO discharge lasers, AIAA J., 12, 1619, 1974.
39. Center, R.E. and Caledonia, G.E., Parametric performance predictions for high-power pulsed electric CO lasers, J. Appl. Phys., 46, 2215, 1975.
40. Lacina, W.B. and McAllister, G.L., Scaling generalizations for a CO electric laser, IEEE J. Quant. Electron., 11, 235, 1975.
41. Stanton, A.C., Hanson, R.K., and Mitchner, M., Vibrational kinetics in CO electric discharge lasers, J. Appl. Phys., 51, 1360, 1980.
42. Iyoda, M., Murota, T., Akiyama, M., et al., Two-dimensional computer modeling of dischargeexcited CO gas flow, Proc. SPIE, 1397, 457, 1991.
43. Iyoda, M., Taniwaki, M., and Sato, S., Network based simulation of CO laser, Proc. SPIE, 3092, 293, 1997.
44. Center, R.E., High power efficient electrically excited CO lasers, in Laser Handbook, Smith, M.L., Ed., North-Holland Publishing Company, The Netherlands, 1979, 89.
45. Rich, W.J., Relaxation of molecules under the exchange of the vibrational energy, in Applied Atomic Collision Physics, 3. Gas Lasers, McDaniel, E.W. and Nighan, W.L., Eds., Academic Press, New York, 1982, 125.
46. Napartovich, A.P., Physics of high-power CO lasers, in Gas Lasers-Recent Developments and Future Prospects, NATO, ASI Series, Ser.3: High Technology, Vol.10, Witteman, W.J. and Ochkin, V.N., Eds., Kluwer Academic Publishers, Dortrecht-Boston-London, 1996, 20.
47. Napartovich, A.P. et al., CO laser: advances in theory and experiment, Proc. SPIE, 5777, 408, 2005.
48. Brechignac, Ph., Near-resonant VV-transfer rates for high-lying vibrational states of CO, Chem. Phys, 34, 119, 1978.
49. Konev, Yu.B. et al., A kinetic model of multi-quantum vibrational exchange in CO, J. Phys. D: Appi. Phys, 27, 2054, 1994.
50. Ionin, A.A. et al., Theoretical modeling and experimental studies of the multi-quantum vibration exchange in vibrationally excited CO molecules, J. Phys. D: Appi. Phys., 34, 2230, 2001.
51. Rapp, D. and Englander-Golden, P., Resonant and near-resonant vibrational-vibrational energy transfer between molecules in collisions, J. Chem. Phys., 40, 573, 1964.
52. 2, J. Chem. Phys., 50, 924, 1969.
53. Billing, G.D., Semiclassical three-dimensional model for vibrational energy transfer in diatomic molecules, Chem. Phys., 5, 244, 1974.
54. 4He, Chem. Phys., 30, 387, 1978.
55. Billing, G.D., The semiclassical treatment of molecular ro/vibrational energy transfers, Comput. Phys. Rep., 1, 237, 1984.
56. Billing, G.D., Rate-constants for vibrational transitions in diatom-diatom collisions, Comput. Phys. Commun., 44, 121, 1987.
57. Billing, G.D. et al., Sensitivity of molecular vibrational dynamics to energy exchange rate constants, J. Phys. B: At. Mol. Opt. Phys., 36, 1175, 2003.
58. Coletti, C. and Billing, G.D., Rate constants for vibrational energy transfer in carbon monoxide, J. Chem. Phys, 113, 4869, 2000.
59. Deleon, R.L. and Rich, J.W., Vibrational energy exchange rates in carbon monoxide, Chem. Phys., 107, 283, 1986.
60. Ionin, A. et al., Parametric study of first overtone CO laser with suppressed fundamental band lasing: experiment and theory, Opt. Commun., 155, 197, 1998.
61. Basov, N.G. et al., Pulsed first-overtone CO laser operating in 2.5-4.2 mm spectral range. II. Frequency selective regime, Quant. Electron., 30, 859, 2000.
62. 2 and strongly excited CO molecules: their role in vibrational kinetics, J. Phys. B: At. Mol. Opt. Phys., 37, 3379, 2004.
63. 2 collisions, J. Phys. Chem. A., 107, 2403, 2003.
64. Basov, N.G. et al., Pulsed laser operating on the first vibrational overtone of the CO molecule in the 2.5-4.2 mm range: 3. The gain and kinetic processes on high vibrational levels, Quant. Electronics, 32, 404, 2002.
65. Ionin, A. et al., Small signal gain time behavior on high vibrational transitions (V> 15) of pulsed CO laser amplifier, Proc. SPIE, 5479, 156, 2004.
66. 2, Proc. SPIE, 5777, 418, 2005.
67. Mantz, A.W. et al., CO laser spectrum studied with a 10-meter vacuum IR grating spectrometer, J. Molec. Spectr., 35, 325, 1970.
68. 2 laser. I. Study of vibrational population, Can. J. Phys., 48, 1956, 1970.
69. Anokhin, A.V., Markova, S.V., and Petrash, G.G., Pulsed lasing on vibrational transitions of CO at gas cooling, Soviet Physics-Lebedev Institute Reports (Kratkie soobscheniya po fisike), #8, 13, Allerton Press Inc, 1970.
70. Mantz, A.W. et al., CO laser spectrum studied with a 10-meter vacuum IR grating spectrometer, J. Molec. Spectr., 35, 325, 1970.
71. Anokhin, A.V., Markova, S.V., and Petrash, G.G., Life-time of inversion on vibrational transitions of CO molecule, Soviet Physics-Lebedev Institute Reports (Kratkie soobscheniya po fisike), #2, 30, Allerton Press Inc, 1970.
72. Freed, C., Sealed-off operation of stable CO lasers, Appl. Phys. Lett., 18, 458, 1971.
73. Seguin, H.J., Tulip, J., and White, B., Sealed CO laser at room-temperature, Can. J. Phys., 49, 273, 1971.
74. Mikoberidze, A.A., Ochkin, V.N., and Sobolev, N.N., Measurement of vibrational temperatures in CO laser, Zhurnal Tekhnicheskoi Fiziki., 42, 1464, 1972 (in Russian).
75. Lotkova, E.N., Mercer, G.N., and Sobolev, N.N., Population, gain and excitation mechanism of the CO laser, Appl. Phys. Lett., 20, 309, 1972.
76. Cohn, D.B., CO TEA laser at 77 K, Appl. Phys. Lett, 21, 343, 1972.
77. Champagne, L., Cryogenically cooled CO-He TEA laser, Appl. Phys. Lett., 23, 158, 1973.
78. Kacheva, T.F., Ochkin, V.N., and Sobolev, N.N., Carbon monoxide operating laser at room temperature, Sov. J. Quant. Electron., 3, 484, 1973.
79. Brechignac, P., Martin, J.P., and Taieb, G., Small-signal gain and vibrational distribution in CO, IEEE J. Quant. Electron., 10, 797, 1974.
80. Cohn, D.B., Griffin, W.S., and Mendoza, P.J., Improved convective flow longitudinal discharge CO laser, J. Appl. Phys., 46, 2790, 1975.
81. McAllister, G.L., Draggo, V.G., and Eguchi., Acoustical wave effects on the beam quality of a high energy CO electric discharge laser, Appl. Opt., 14, 1290, 1975.
82. Keren, H., Avivi, P., and Dothan, F., The influence of oxygen on CO laser performance, IEEE J. Quant. Electron., 11, 590, 1975.
83. Smith, A.L.S., Effect of xenon on the temperature in carbon monoxide lasers, IEEE J. Quant. Electron., 13, 59, 1977.
84. Lim, D.G., Mendoza, P.J., and Cohn, D., Characteristics of a 600 W convective flow CO laser, Rev. Sci. Instr., 48, 1430, 1977.
85. Monson, D.J. and Srinavasan, G., A pulser-sustainer carbon monoxide electric discharge supersonic laser, Appl. Phys. Lett., 31, 828, 1977.
86. Avtonomov, V.P. et al., Lasing line selection in an electric-discharge CO laser, Sov. J. Quant. Electron., 8, 1074, 1978.
87. Basov, N.G. et al., Experimental investigation of pulsed electron-beam controlled carbon monoxide lasers, J. Sov. Laser Res., 1, 311, 1980.
88. Baranov, V.Y. et al., Experimental and theoretical study of non-cooled CO laser with short pulse pumping, IEEE J. Quant. Electron., 19, 1463, 1983.
89. Sato, S., Fujioka, H., and Saito, H., High-power-closed cycle subsonic CW CO laser excited by a transverse self-sustained discharge, Appl. Phys. Lett., 46, 537, 1985.
90. Sobolev, N.N. and Sokovikov, V.V., The carbon monoxide laser. Review of experimental results, Sov. J. Quant. Electron., 2, 305, 1972.
91. Bhaumic, M.L., High-efficiency electric discharge CO lasers, in Lect. Summer School on Physics and Technology, Capri, October, 1975, Inst. Phys. Conf., Ser 29, 1976, 243.
92. Mann, M.M., CO electric discharge lasers, AIAA J., 14, 549, 1976.
93. Ionin, A.A. et al., Electric discharge high-pressure IR lasers and their applications, Itogi nauki i tekhniki, ser. Radiotekhnika., 32, VINITI, Moscow, 1984 (in Russian).
94. Ionin, A.A., High-power CO lasers in Russia, Quant. Electron., 23, 93, 1993.
95. Ionin, A. and Spalding, I., CO lasers-state of the art and potential of applications, in Gas Lasers- Recent Developments and Future Prospects, NATO, ASI Series, Ser.3: High Technology, Vol. 10, Witteman, W.J. and Ochkin, V.N., Eds., Kluwer Academic Publishers, Dortrecht-Boston-London, 1996, 279.
96. Ionin, A., Carbon monoxide lasers: problems of physics and engineering, Proc. SPIE, 889, 24, 2000.
97. Asawa, C.K., Compact 1.1 W sealed-off waveguide CO laser, Appl. Phys. Lett., 24, 121, 1974.
98. Peters, P.J.M., Witteman, W.J., and Zuidema, R.J., Efficient simple sealed-off CO laser at room temperature, Appl. Phys. Lett., 37, 119, 1980.
99. Dubovsky, P.E. et al., Sealed waveguide CO laser, Sov. J. Quant. Electron., 12, 800, 1982.
100. Aleinikov, V.S. and Masychev, V.I., Carbon Monoxide Lasers, Radio i Svyaz'., Moscow, 1990 (in Russian).
101. McNaught, W.G. and Wlodarczyk, G., A 3 kW industrial CO laser operating at room temperature, Proc. SPIE, 3092, 440, 1997.
102. Abrosimov, G.V. et al., Experimental research of fast-flow CO laser operating in CW regime, Zhurnal Tekhnicheskoi Fiziki., 47, 235, 1977 (in Russian).
103. Hall, D.R. et al., New technology for industrial carbon monoxide lasers, Proc. Int. Conf. Laser Advanced Material Processing LAMP'92, Nagaoka, Japan, 55, 1992.
104. Shimizu, K. et al., High-power room temperature operated CO laser, Proc. SPIE, 3889, 433, 2000.
105. Kanazawa, H. et al., Characteristics of a transverse-flow CO laser excited by RF discharge, IEEE J. Quant. Electron., 30, 1448, 1994.
106. Uehara, M., Kanazawa, H., and Kasuya, K., Recent studies of high-power CO laser under roomtemperature operation, Proc. SPIE, 2502, 38, 1995.
107. Uehara, M. and Kanazawa, H., A room temperature operating pulse RF discharge excited CO laser, Proc. SPIE, 3092, 436, 1997.
108. Zhao, H., Baker, H.J., and Hall, D.R., Area scaling in slab RF excited carbon monoxide lasers, Appl. Phys. Lett., 59, 1281, 1991.
109. Villarrea, F. et al., High-pressure CW molecular gas lasers using narrow-gap slab waveguides, CLEO'95, Technical Digest, p. 44, 1995.
110. Xin, J., Zhang, W., and Jiao, W., Radio frequency discharge excited diffusively cooled kilowatt carbon monoxide slab waveguide laser with a three mirror resonator, Appl. Phys. Lett., 75, 1369, 1999.
111. Gerasimchuk, A. et al., Frequency tuned carbon monoxide waveguide laser with RF pumping, Appl. Phys., B48, 513, 1989.
112. Luo, X., Schafer, J.H., and Uhlenbusch, J., High power room temperature operating CW CO laser excited by microwave discharge, Proc. SPIE, 2502, 69, 1995.
113. Schafer, J.H., Uhlenbusch, J., and Wierich, M., Microwave excited CW CO laser at room temperature, Proc. SPIE, 4184, 242, 2001.
114. Rich, J.W. et al., An electrically excited gas dynamic carbon monoxide laser, Appl. Phys. Lett., 19, 230, 1971.
115. Brunet, H. and Mabru, M., Electrical CO-mixing gas dynamics laser, Appl. Phys. Lett., 21, 432, 1971.
116. Kan, T., Streagack, J.A., and Watt, W.S., Electric-discharge gas-dynamic laser, Appl. Phys. Lett., 20, 137, 1972.
117. Shirley, J.A., Hall, R.J., and Bronfin, B.R., Stimulated emission from carbon monoxide transitions below 5 mm excited in supersonic electric discharge, J. Appl. Phys., 45, 3934, 1974.
118. Rich, J.W., Bergman, R.C., and Lordi, J.A., Experimental and theoretical investigation of the electrically excited, supersonic flow carbon monoxide laser, AIAA J., 13, 95, 1975.
119. Daiber, J. and Thompson, H., Performance of a large CW preexcited CO supersonic laser, IEEE J. Quant. Electron., 13, 10, 1977.
120. Krause, S. and Maisenhalder, F., Gasdynamic CO laser with closed-cycle gas flow, Appl. Phys., 22, 421, 1980.
121. Stanton, A.C., Hanson, R.K., and Mitchner, M., Performance of a CW double electric discharge for supersonic CO lasers, J. Appl. Phys., 51, 1370, 1980.
122. Schock, W. et al., CW carbon monoxide laser with RF excitation in the supersonic flow, Appl. Phys. Lett, 37, 119, 1980.
123. Hoffman, P. et al., CW carbon monoxide laser with microwave excitation in the supersonic flow, Appl. Phys. Lett., 37, 673, 1980.
124. von Bulow, H. and Zeifang, E., Gas dynamically cooled CO laser with RF excitation, Proc. SPIE, 1397, 499, 1990.
125. von Bulow, H. and Zeifang, E., Supersonic CO laser with RF excitation, Rev. Sci. Instr., 64, 1764, 1993.
126. von Bulow, H. and Schellhorn, M., High-power gas dynamically cooled carbon monoxide laser, Appl. Phys. Lett., 63, 287, 1993.
127. von Bulow, H. and Schellhorn, M., High-power gas dynamically cooled CO laser with unstable resonator, Proc. SPIE, 2502, 63, 1994.
128. McCord, J.E. et al., Supersonic RF discharge CO laser operating in fundamental (D = 1) and overtone (Δ = 2) spectral bands, Proc. SPIE, 5448, 379, 2004.
129. Kuribayashi, S. et al., Current status of the high-power CO laser program, Proc. LAMP'92, Nagaoka, Japan, 51, 1992.
130. Basov, N.G. et al., About the possibility of development of tunable IR gas lasers, Pis'ma v Zhurnal Experimental'noi i Teoreticheskoi Fiziki., 14, 545, 1971 (in Russian).
131. Basov, N.G. et al., Electron-beam sustained discharge pulsed CO laser, Soviet Physics-Lebedev Institute Reports (Kratkie soobscheniya po fisike), #6, 1, Allerton Press Inc., 1974.
132. Basov, N.G. et al., Electron-beam sustained discharge CO laser with output energy 100 J, Sov. J. Quant. Electron., 4, 1412, 1974.
133. Center, R.E., High-pressure electrical CO laser, IEEE J. Quant. Electron., 10, 208, 1974.
134. Mann, M.M., Rice, D.K., and Eguchi, R.G., An experimental investigation of high energy CO lasers, IEEE J. Quant. Electron., 10, 682, 1974.
135. Basov, N.G. et al., Lasing in e-beam sustained discharge high-pressure CO laser, Pis'ma v Zhurnal Tekhnicheskoi Fiziki., 2, 817, 1976 (in Russian).
136. Boness, M.J.W. and Center, R.E., High-pressure electrical CO laser, J. Appl. Phys., 48, 2705, 1977.
137. Basov, N.G. et al., Cooled e-beam sustained discharge carbon monoxide laser with active volume 5 liters, Pis'ma v Zhurnal Tekhnicheskoi Fiziki., 3, 385, 1977 (in Russian).
138. Basov, N.G. et al., Pulsed EBSD lasers with cryogenic cooling of active medium, Zhurnal Tekhnicheskoi Fiziki., 55, 326, 1985 (in Russian).
139. Ionin, A. et al., Pulsed laser facilities operating from UV to IR at the Gas Laser Lab of the Lebedev Institute, in Proc. First Symp. Beamed Energy Propulsion, Pakhomov, A., Ed., Huntsville, AL, November 2002, American Institute of Physics, 2003, 697.
140. Averin, A.P. et al., Repetitively pulsed EBSD carbon monoxide laser, Sov. J. Quant. Electron., 20, 427, 1990.
141. 2 and CO lasers for industrial applications, IEEE J. Quant. Electron., 21, 342, 1985.
142. Spalding, I. et al., Final Report of Eureka EU113 CO Eurolaser Project, Doc. No. TLC/EU 113/PM/40, Sub-project group 4, Generic Applications and Process Research, 62, 1996.
143. Averin, A. et al., High power CO lasers for material processing, Proc. SPIE, 2206, 1994.
144. Rodin, A.V. et al., Pulsed powerful e-beam sustained CO laser with a subsonic flow of the active gas mixture, Proc. SPIE, 4065, 836, 2000.
145. Ionin, A. et al., Room temperature repetitively pulsed e-beam sustained carbon monoxide laser, Proc. SPIE, 2502, 44, 1994.
146. Bohn, W.L. et al., High power CO overtone laser, Proc. SPIE, 4760, 486, 2002.
147. Golovin, A.S. et al., Continuous wave electron-beam stabilized CO laser with subsonic flow of the active medium, Quant. Electron., 26, 395, 1996.
148. 2/Ar mixtures, AIAA Paper 74-562, 1974.
149. Klosterman, E.L. and Byron, S.R., Electrical and laser diagnostics of an 80 kW supersonic CW CO electric laser, J. Appl. Phys., 50, 5168, 1979.
150. Maisenhalder, F., High power CO lasers and their application potential, Proc. SPIE, 1031, 98, 1988.
151. Ionin, A. et al., Supersonic electron beam controlled discharge CO laser, Proc. SPIE, 1397, 453, 1990.
152. Dymshits, B.M. et al., CW 200 kW supersonic CO laser, Proc. SPIE., 2206, 109, 1994.
153. Monson, D.J., Systems efficiency and specific mass estimates for direct and indirect solar-pumped closed-cycle high-energy lasers in space, in Radiat. Energy Convers. Space Techn. Pap. 3rd NASA Conf., Moffet Field., CA, NY, 333, 1978.
154. Coneybear, J.F., The use of lasers for the transmission of power, in Radiat. Energy Convers. Space Techn. Pap. 3rd NASA Conf, Moffet Field., CA, NY, 279, 1978.
155. Rich, J.W., Bergman, R.C., and Raymonda, Y., Vibrational-vibrational pumping of carbon monoxide initiated by an optical source, Appl. Phys. Lett., 27, 656, 1975.
156. Cohn, D.B. et al., Optical pumping of CO by a convective flow CO laser, IEEE J. Quant. Electron., 22, 723, 1986.
157. Anan'ev, V.Y. et al., Nonlinear absorption and spectral conversion of laser radiation by carbon monoxide molecules excited in an electron-beam-controlled discharge, Sov. J. Quant. Electron., 17, 1287, 1987.
158. Urban, W. et al., Treanor pumping of CO initiated by CO laser excitation, Chem. Phys., 130, 389, 1989.
159. Adamovich, I. et al., Vibrationally stimulated ionization of carbon monoxide in optical pumping experiments, Chem. Phys., 173, 491, 1993.
160. Wallaart, H.L. et al., Transfer of vibrational energy to electronic excited states and vibration enhanced carbon production in optically excited V-V pumped CO, Chem. Phys., 196, 149, 1995.
161. Kochetov, I.V. et al., Optical pumping of mixture containing CO by multifrequency CO laser radiation, Quant. Electron., 25, 655, 1995.
162. Schulz, O. et al., Optical pumping of CO and laser emission, Contributed papers, III Int. Schoolseminar "Nonequilibrium processes and their applications", Minsk, Belarus, September, 8-13, 1996, 40.
163. McCord, J.E. et al., Experimental investigation of an optically pumped mid-infrared carbon monoxide laser, IEEE J. Quant. Electron., 35, 1602, 1999.
164. McCord, J.E. et al., Frequency tunable optically pumped carbon monoxide laser, IEEE J. Quant. Electron., 36, 1041, 2000.
165. Phipps, S.P. et al., Investigation of the state-to-state rotational relaxation rate constants for carbon monoxide (CO) using infrared double resonance, J. Chem. Phys., 116, 9281, 2002.
166. Hostutler, D.A. et al., State to state rotational relaxation rate constants for the CO+X series (X = CO, He, and Ne) using IR-IR double resonance experiments. Comparing theory to experiment, Proc. SPIE, 5448, 906, 2004.
167. Oraevsky, A.N. and Protsenko, I.E., Explosive absorption of radiation, Sov. J. Quant. Electron., 15, 1509, 1985.
168. Shmelev, V.M. and Margolin, A.D., Optical instability of molecular gas under non-isothermal conditions, Khimicheskaya Fizika., 4, 873, 1985 (in Russian).
169. Anan'ev, V.Y. et al., Pulsed EBSD carbon monoxide laser amplifiers. I. Amplification of radiation of free-running EBSD CO laser, Sov. J. Quant. Electron., 19, 4, 1989.
170. Anan'ev, V.Yu. et al., Pulsed EBSD carbon monoxide laser amplifiers. II. Amplification of pulsed radiation of EBSD CO laser with controlled spectral and time parameters, Sov. J. Quant. Electron., 19, 10, 1989.
171. 2 and CO lasers as a nonlinear component of phase-conjugating mirror, Quant. Electron., 24, 513, 1994.
172. Ionin, A.A. et al., Intracavity phase-conjugation of the radiation from a pulsed frequency selective CO laser, Quant. Electron., 30, 342, 2000.
173. Anan'ev, V.Yu. et al., Enhancement of the efficiency of Q-switched electron-beam-controlled CO laser by generating a series of laser pulses, Sov. J. Quant. Electron., 15, 1096, 1985.
174. Ionin, A. et al., Pulsed frequency selective tunable Q-switched EBSD CO laser, Quant. Electron., 27, 189, 1997.
175. Ionin, A. et al., Application of CO laser for frequency selective surface heat treatment of polymer materials, Proc. SPIE, 3343, 1032, 1998.
176. Basov, N.G., Kazakevich, V.S., and Kovsh, I.B., Electron-beam-controlled laser utilizing the first overtones of the vibrational-rotational transitions of the CO molecule. I. Time-resolved spectral characteristics, Sov. J. Quant. Electron., 10, 1131, 1980.
177. Basov, N.G., Kazakevich, V.S., and Kovsh, I.B., Electron-beam-controlled laser utilizing the first overtones of the vibrational-rotational transitions of the CO molecule. II. Energy characteristics, Sov. J. Quant. Electron., 10, 1136, 1980.
178. Basov, N.G., Ionin, A.A., and Kovsh, I.B., The electroionization CO laser: a multiwavelength IR oscillator (l = 2.7-3.3 mm; 4.9-6.0 mm), Infrared Phys., 25, 47, 1985.
179. Urban, W., The carbon monoxide laser as spectroscopic source, Laser und Optoelectronik, 23, 56, 1991.
180. Bachem, E. et al., Recent progress with the CO overtone D V - 2 laser, Appl. Phys., B57, 185, 1993.
181. Murtz, M. et al., Tunable carbon monoxide overtone laser sideband system for precision spectroscopy from 2.6 to 4.1 mm, Opt. Lett., 23, 58, 1998.
182. George, T. et al., Saturation stabilization of the CO fundamental-band laser, Appl. Phys., B53, 330, 1991.
183. Konev, Yu.B. et al., Investigation of a possibility of getting lasing on overtones of CO molecule at electric discharge pumping, Pis'ma v Zhurnal Tekhnicheskoi Fiziki., 3, 1267, 1977 (in Russian).
184. Suchkov, A.F. and Shebeko, Yu. N., Theoretical investigation of the energy and spectral characteristics of a laser utilizing the first overtones of the vibrational-rotational transitions of CO molecule, Sov. J. Quant. Electron., 9, 565, 1979.
185. Zhdanok, S.A. et al., Analytical theory of steady-state lasing on overtone of CO molecule, Inzhenerno Fizicheskii Zhurnal., 38, 273, 1980 (in Russian).
186. Konev, Yu.B. et al., Investigation of characteristics of gas discharge CO laser at overtone lasing. II. Simultaneous lasing on fundamental band and overtone in pulsed regime, Inzhenerno Fizicheskii Zhurnal., 41, 514, 1981 (in Russian).
187. Konev, Yu.B. et al., Investigation of characteristics of gas discharge CO laser at overtone lasing. I. Steady-state regime, Inzhenerno Fizicheskii Zhurnal., 41, 289, 1981 (in Russian).
188. Belykh, A.D. et al., Pulsed CO laser based on the first vibrational overtone, Quant. Electron., 25, 315, 1995.
189. Aleksandrov, B.S. et al., Energy and spectral characteristics of a supersonic electron-beamsustained CO laser based on the first vibrational overtone and also operating in a selection regime, Quant. Electron., 27, 584, 1997.
190. Ionin, A. et al., Pulsed first-overtone CO laser: effective source of IR radiation in spectral range 2.5-4.0 mm, Opt. Commun., 160, 255, 1999.
191. Basov, N.G. et al., Pulsed first-overtone CO laser with output efficiency higher than 10%, Opt. Commun., 171, 107, 1999.
192. Basov, N.G. et al., Frequency tunable single-line first-overtone carbon monoxide laser, Opt. Commun., 180, 285, 2000.
193. Zeifang, E., Mayerhofer, W., and Walther, S., Room-temperature repetitively pulsed CO overtone laser, Proc. SPIE, 4184, 230, 2001.
194. Bohn, W., et al., High power supersonic CO laser on fundamental and overtone transitions, Quant. Electron, 35, 1126, 2005.