Journal of Thermophysics and Heat Transfer · 1988 · 457 citations · 25 references
Natural SciencesChemistryPhysicsChemical KineticsRadiation PhysicsRadiation TransportChemical Kinetics ModelingKinetic ModelingShock WavesEquilibriumNormal Shock WavesRadiation IntensityRotational TemperatureShock Tube FlowShock Tube KineticsShock Wave GenerationShock Wave Modeling
The validity of the author's two-temperature, chemical/kinetic model which the author has recently improved is assessed by comparing the calculated results with the existing experimental data for nitrogen in the dissociating and weakly ionizing regime produced behind a normal shock wave. The computer program Shock Tube Radiation Program (STRAP) based on the two-temperature model is used in calculating the flow properties behind the shock wave and the Nonequilibrium Air Radiation (NEQAIR) program, in determining the radiative characteristics of the flow. Both programs were developed earlier. Comparison is made between the calculated and the existing shock tube data on (1) spectra in the equilibrium region, (2) rotational temperature of the N2(+) B state, (3) vibrational temperature of the N2(+) B state, (4) electronic excitation temperature of the N2 B state, (5) the shape of time-variation of radiation intensities, (6) the times to reach the peak in radiation intensity and equilibrium, and (7) the ratio of nonequilibrium to equilibrium radiative heat fluxes. Good agreement is seen between the experimental data and the present calculation except for the vibrational temperature. A possible reason for the discrepancy is given.
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Systematics of Vibrational Relaxation
Roger C. Millikan, Donald R. White · The Journal of Chemical Physics · 1963 · 1.9K citations
Natural Sciences, Chemistry, Physics +15
On convergence of computation of chemically reacting flows
C. PARK · 23rd Aerospace Sciences Meeting · 1985 · 345 citations
Natural Sciences, Chemistry, Physics +17