International audienceExperimental measurements and theoretical calculations are reported for rotational energy transfer in the Ar-CO system. Experiments were performed in cold uniform supersonic flows of Ar, using an infrared - vacuum ultraviolet double resonance technique to measure absolute state-to-state rate constants and total relaxation cross sections for rotational energy transfer within the (v = 2) vibrational state of CO in collision with Ar at temperatures from 30.5 to 293 K. Close-coupling calculations were also performed using a recent potential energy surface (Sumiyoshi and Endo, 2015). Very good agreement is obtained between measured and calculated values
Knowledge of energy exchange rate constants in inelastic collisions is critically required for accur...
Knowledge of energy exchange rate constants in inelastic collisions is critically required for accur...
Results of quasiclassical trajectory studies of CO<SUB>2</SUB> (J<SUB>i</SUB>=0, 16, 30)-H<SUB>2</SU...
Experimental measurements and theoretical calculations are reported for rotational energy transfer i...
Experimental measurements and theoretical calculations are reported for rotational energy transfer i...
International audienceExperimental measurements and theoretical calculations of state-to-state rate ...
Cette thèse a été effectuée au sein de l’Institut de Physique de Rennes, et qui porte sur le transfe...
Rates for resonant vibrational and rotational energy transfer from the 001 state by CO/sub 2/ + CO/s...
Infrared-vacuum ultraviolet double resonance experiments have been implemented in the ultracold envi...
Rotational energy transfer is an important process in a variety of astrophysical environments includ...
Author Institution: Department of Chemistry Indiana, University BloomingtonThe rate constant for the...
Author Institution: Department of Chemistry, University of CaliforniaThe V-V energy transfer rates f...
A mid-infrared interference-free laser absorption technique for simultaneously measuring rotational ...
ABSTRACT New quantum scattering calculations for rotational deexcitation transitions of CO induced b...
AbstractWe have measured the rate constants for the reactions of Ar+ with CO2 and SO2 from 300 to 15...
Knowledge of energy exchange rate constants in inelastic collisions is critically required for accur...
Knowledge of energy exchange rate constants in inelastic collisions is critically required for accur...
Results of quasiclassical trajectory studies of CO<SUB>2</SUB> (J<SUB>i</SUB>=0, 16, 30)-H<SUB>2</SU...
Experimental measurements and theoretical calculations are reported for rotational energy transfer i...
Experimental measurements and theoretical calculations are reported for rotational energy transfer i...
International audienceExperimental measurements and theoretical calculations of state-to-state rate ...
Cette thèse a été effectuée au sein de l’Institut de Physique de Rennes, et qui porte sur le transfe...
Rates for resonant vibrational and rotational energy transfer from the 001 state by CO/sub 2/ + CO/s...
Infrared-vacuum ultraviolet double resonance experiments have been implemented in the ultracold envi...
Rotational energy transfer is an important process in a variety of astrophysical environments includ...
Author Institution: Department of Chemistry Indiana, University BloomingtonThe rate constant for the...
Author Institution: Department of Chemistry, University of CaliforniaThe V-V energy transfer rates f...
A mid-infrared interference-free laser absorption technique for simultaneously measuring rotational ...
ABSTRACT New quantum scattering calculations for rotational deexcitation transitions of CO induced b...
AbstractWe have measured the rate constants for the reactions of Ar+ with CO2 and SO2 from 300 to 15...
Knowledge of energy exchange rate constants in inelastic collisions is critically required for accur...
Knowledge of energy exchange rate constants in inelastic collisions is critically required for accur...
Results of quasiclassical trajectory studies of CO<SUB>2</SUB> (J<SUB>i</SUB>=0, 16, 30)-H<SUB>2</SU...