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Modeling the combustion of propellant sandwiches
G. M. Knott,
M. Q. Brewster
Mechanical Science and Engineering
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peer-review
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Keyphrases
Combustion
100%
Propellant
100%
Burning Rate
100%
Oxidizer
66%
Response Surface Regression
66%
Binder
66%
Gas Phase
66%
Surface Geometry
66%
Regression Rate
66%
Condensed Phase
33%
Three-dimensional (3D)
33%
Two Dimensional
33%
Particle Size
33%
Distribution-based
33%
Particulate
33%
Binder Layer
33%
Pressure Sensitivity
33%
Surface Topography
33%
Protrusion
33%
Kinetic Mechanism
33%
Reaction Order
33%
Chemical Kinetics
33%
Heat Release
33%
Observed Trends
33%
Complex Kinetics
33%
Gas-solid
33%
Solid Composites
33%
Combustion Process
33%
Flame Structure
33%
Composite Propellant
33%
Ammonium Perchlorate
33%
Propellant Surface
33%
Hydroxyl-terminated Polybutadiene
33%
Heat Feedback
33%
Steady-state Model
33%
Implicit Surface
33%
Composite Solid Propellant
33%
Heat Release Distribution
33%
Propellant Formulation
33%
Experimental Fire
33%
Species Transport
33%
Solid Energy
33%
Free Surface Boundary
33%
Solid-phase Pyrolysis
33%
Transient Phenomena
33%
Transport Analysis
33%
Composite Propellant Combustion
33%
Engineering
Burning Rate
100%
Oxidizer
66%
Heat Release
66%
Transients
33%
Experimental Observation
33%
Two Dimensional
33%
Pyrolysis
33%
Free Surface
33%
Gas-Phase
33%
Surface Topography
33%
Essential Feature
33%
Steady-State Model
33%
Reaction Order
33%
Material Science
Surface (Surface Science)
100%
Composite Propellant
50%
Composite Material
50%
Polybutadiene
25%
Solid Propellant
25%
Surface Topography
25%