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Multiscale modeling of damaged surface topology in a hypersonic boundary
Neil A. Mehta,
Deborah A. Levin
Aerospace Engineering
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Keyphrases
Accurately Model
33%
Amorphous Silica
33%
Argon
33%
Atomic Oxygen
100%
Atomically Smooth
33%
Defect Effect
33%
Elastic Modulus
33%
Graphite Surface
33%
Highly Oriented Pyrolytic Graphite
100%
Hypersonic
100%
Ice nucleation
33%
Kinetic Monte Carlo
66%
Material Erosion
33%
Model Surfaces
33%
Molecular Dynamics
66%
Multiscale Modeling
100%
N2 Adsorption
66%
Number of Sites
33%
Process Execution
33%
Quartz Surface
66%
Silica Aggregates
33%
Sticking Probability
33%
Surface Evolution
66%
Surface Topology
100%
Trajectory Simulation
33%
Engineering
Adsorption
100%
Defects
50%
Erosion Model
50%
Length Scale
50%
Material Erosion
50%
Multiscale Modeling
100%
Silica Aggregate
50%
Sticking Probability
50%
Surface Evolution
100%
Young's Modulus
50%
Material Science
Amorphous Material
50%
Desorption
100%
Elastic Moduli
50%
Nucleation
100%
Silicon Dioxide
50%