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Consistent kinetic-continuum dissociation model I. Kinetic formulation
Narendra Singh
,
Thomas Schwartzentruber
Aerospace Engineering and Mechanics
Research output
:
Contribution to journal
›
Article
›
peer-review
23
Scopus citations
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Keyphrases
Dissociation Model
100%
Internal Energy
100%
Boltzmann Distribution
100%
Kinetic Formulation
100%
Non-equilibrium
66%
Cross Model
66%
Non-Boltzmann
66%
Overpopulation
66%
Energy State
66%
Computational Tools
33%
Dissociation
33%
Computationally Expensive
33%
Quasi-classical Trajectory Method
33%
Potential Energy Surface
33%
Vibrational States
33%
Translational Energy
33%
Simulation Data
33%
Reduced Rate
33%
High Air Temperature
33%
Rotational Energy
33%
Vibrational Energy
33%
Non-boltzmann Distribution
33%
Non-equilibrium Chemistry
33%
Gasses
33%
Transient Phase
33%
Air Chemistry
33%
Chemical Kinetic Model
33%
Nonequilibrium Steady State
33%
Nonequilibrium Dissociation
33%
Boltzmann Model
33%
Ab Initio Simulations
33%
Centrifugal Barrier
33%
High Energy States
33%
Engineering
Nonequilibrium
100%
Boltzmann Distribution
100%
Internal Energy
75%
Cross Section
50%
Energy State
50%
Nonequilibrium Steady States
25%
Energy Surface
25%
Kinetic Model
25%
Potential Energy
25%
Boltzmann Equation
25%
Boltzmann Model
25%
Additional Cost
25%
Centrifugal
25%
Rotational Energy
25%
Higher energy states
25%
Physics
Boltzmann Distribution
100%
Internal Energy
75%
Physics
25%
Potential Energy
25%
Vibrational State
25%
Nonequilibrium Steady States
25%