Electronic-to-vibrational energy transfer reactions.X* + CO (X = O, I and Br)
暂无分享,去创建一个
[1] M. Lin. Photoexcitation and photodissociation lasers. III. mechanisms of CO laser emission from the vacuum UV photodissociation of CH2COO2 and CH2COSO2 mixtures , 1975 .
[2] M. Lin,et al. Chemical lasers produced from O(3P) atom reactions. IV. Carbon monoxide laser emission from the oxygen atom + cyanogen reaction , 1974 .
[3] N. Djeu. Quantitative laser measurement of very small absorptions: Studies of the O + CS→CO(V) + S reaction , 1974 .
[4] B. Nickel. Transfer and Storage of Energy by Molecules , 1974 .
[5] T. Slanger,et al. Electronic‐to‐vibrational energy transfer efficiency in the O(1D)–N2 and O(1D)–CO systems , 1974 .
[6] H. Powell. Vibrational relaxation of carbon monoxide using a pulsed discharge , 1973 .
[7] M. Lin. Mechanism of carbon monoxide laser emission from the methylidyne + nitric oxide reaction , 1973 .
[8] S. Tsuchiya,et al. Electronic-to-vibrational energy transfer in a collision of CO with Hg(3PO) , 1973 .
[9] W. Goddard,et al. Theoretical assignments of the low-lying electronic states of carbon dioxide , 1973 .
[10] N. Djeu,et al. Method for Measuring Relative Transition Probabilities of Cascading Molecular Bands: Application to CO Fundamental Bands , 1972 .
[11] Ian W. M. Smith,et al. Vibrational relaxation of carbon monoxide (4 ⩽ ν ⩽ 10) at T ≈ 100°K , 1972 .
[12] R. Levine,et al. Dynamical theory of vibrational state population distribution in electronic-to-vibrational energy transfer. Application to Hg*-sensitized IR fluorescence of diatomics , 1972 .
[13] L. Brus,et al. Chemical lasers produced from O(1D) atom reactions. V. Carbon monoxide stimulated emission from flash-initiated O3 + XCN systems , 1972 .
[14] Ian W. M. Smith,et al. Vibrational excitation of CO in the reaction: O + CS → CO + S , 1971 .
[15] J. Polanyi,et al. Infrared-Emission Studies of Electronic-to-Vibrational Energy Transfer. IV: Hg + HF. , 1971, Applied optics.
[16] L. Brus,et al. Chemical CO Laser from the O(1D) + C3O2(1Σg+)→3CO(1Σ+) Reaction , 1971 .
[17] D. Husain,et al. Recent advances in the chemistry of electronically excited atoms , 1970 .
[18] K. Holdy,et al. Molecular Dynamics of Photodissociation: Quasidiatomic Model for ICN , 1970 .
[19] R. Cvetanovic,et al. Collisional Deactivation of Excited Oxygen Atoms in the Photolysis of NO2 at 2288 Å , 1966 .
[20] L. Young,et al. Dipole Moment Function and Vibration—Rotation Matrix Elements for CO , 1966 .
[21] R. Cvetanovic,et al. Collisional Deactivation of the Excited Singlet Oxygen Atoms and Their Insertion into the CH Bonds of Propane , 1964 .
[22] C. Bamford,et al. Comprehensive Chemical Kinetics , 1976 .
[23] S. Leone,et al. Laser‐excited electronic‐to‐vibrational energy transfer from Br(42P1/2) to HCl and HBr , 1974 .
[24] R. Collins,et al. A kinetic study of vibrationally excited O2(a1Δg, ν = 1) by time-resolved absorption spectroscopy in the vacuum ultra-violet , 1972 .
[25] E. E. Nikitin,et al. Nichtadiabatische Übergänge bei Stößen zwischen Atomen und Molekülen. Desaktivierung von Br(42P1/2)- und J(52P1/2)-Atomen durch zweiatomige Moleküle (N2, CO) , 1970 .
[26] J. Polanyi,et al. Infrared‐Emission Studies of Electronic‐to‐Vibrational Energy Transfer. II. Hg*+CO , 1967 .
[27] D. Husain,et al. Electronically excited iodine atoms I(52P½). Part 3 , 1966 .
[28] D. Husain,et al. Electronically excited bromine atoms Br(42P½). Part 2.—Spin orbit relaxation , 1966 .
[29] D. Husain,et al. Electronically excited bromine atoms Br(42P½). Part 1.—Primary processes in the photolysis of simple bromides and spin-orbit relaxation of Br(42P½) , 1966 .
[30] J. Polanyi,et al. Infrared Emission Arising from Electronic—Vibrational Energy Transfer: Hg*+CO , 1963 .