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Nonequilibrium internal energy distributions during dissociation
Narendra Singh
,
Thomas Schwartzentruber
Aerospace Engineering and Mechanics
Research output
:
Contribution to journal
›
Article
›
peer-review
36
Scopus citations
Overview
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Dive into the research topics of 'Nonequilibrium internal energy distributions during dissociation'. Together they form a unique fingerprint.
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Keyphrases
Non-equilibrium
100%
Dissociation
100%
Internal Energy
100%
Internal Energy Distribution
100%
Energy Levels
66%
Energy Distribution
66%
Molecular Simulation
33%
Hypersonic Flight
33%
Strong Coupling
33%
Dissociation Rate
33%
Functional Form
33%
State Dissociation
33%
Nitrogen Gas
33%
Quasi-steady State
33%
Rotational Energy
33%
Vibrational Energy
33%
Non-Boltzmann
33%
Shock Waves
33%
Gasses
33%
Ab Initio Potential Energy Surface
33%
Excitation Phase
33%
Overpopulation
33%
Surprisal Analysis
33%
Surprisal
33%
Non-equilibrium Physics
33%
Engineering
Nonequilibrium
100%
Internal Energy
100%
Energy Distribution
100%
Energy Surface
25%
Molecular Level
25%
Quasi Steady State
25%
Potential Energy
25%
Boltzmann Equation
25%
Functional Form
25%
Shockwave
25%
Rotational Energy
25%
Chemistry
Nonequilibrium
100%
Internal Energy
100%
Chemistry
25%
Potential Energy Surface
25%
Vibrational Energy
25%
Rotational Energy
25%
Boltzmann Equation
25%
Physics
Internal Energy
100%
Energy Distribution
100%
Physics
25%
Quasi-Steady State
25%
Hypersonic Flight
25%
Potential Energy
25%
Material Science
Molecular Simulation
100%
Surface Energy
100%