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Influence of fin size and distribution on solid-liquid phase change in a rectangular enclosure
Pascal Henry Biwole,
Dominic Groulx
, Farah Souayfane, Tim Chiu
Office of Academic Affairs
科研成果
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同行评审
131
引用 (Scopus)
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探究 'Influence of fin size and distribution on solid-liquid phase change in a rectangular enclosure' 的科研主题。它们共同构成独一无二的指纹。
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Keyphrases
Rectangular Enclosure
100%
Solid-liquid Phase Change
100%
Fin Distribution
100%
Fin Width
100%
Front Plate
100%
Natural Convection
50%
Simulated Case
50%
Hot Plate
50%
Sensible Heat
50%
Stabilization Time
50%
Plate Temperature
50%
Heat Transfer Rate
50%
Fin number
50%
High Ratio
25%
Energy Storage
25%
Heat Flux
25%
Latent Heat Storage
25%
Viscosity
25%
Phase Change
25%
Energy Storage Devices
25%
Forcing Term
25%
Efficiency Evaluation
25%
Temperature Stabilization
25%
Stabilization Temperature
25%
Assessment Parameters
25%
Transfer Heat
25%
High Heat Flux
25%
Backing Plate
25%
Sensible Storage
25%
Phase Change Heat Transfer
25%
Heat Diffusion Equation
25%
Buoyancy Force
25%
Equivalent Heat Capacity
25%
Latent Storage
25%
Momentum Conservation Equation
25%
Additional Volume
25%
Temperature Decrease
25%
Volume Force
25%
Navier-Stokes
25%
Heat Transfer
25%
Temperature Standard Deviation
25%
Capacity Method
25%
Fin Length
25%
Heated Plate
25%
Fin Spacing
25%
Heat Storage Performance
25%
Constant Heat Flux
25%
Marginal Impact
25%
Engineering
Heat Flux
100%
Natural Convection
100%
Sensible Heat
100%
Rectangular Enclosure
100%
Heat Transfer Rate
100%
Liquid Phase Change
100%
Hot Plate
100%
Energy Engineering
50%
Stored Energy
50%
Latent Heat Storage
50%
Numerical Study
50%
Buoyancy Force
50%
Function of Time
50%
Momentum Conservation
50%
Constant Heat Flux
50%
Equivalent Heat Capacity Method
50%
Fluid Viscosity
50%
Backplate
50%
Marginals
50%
Conservation Equation
50%
Heat Diffusion Equation
50%
Chemical Engineering
Heat Flux
100%
Natural Convection
66%
Latent Heat
33%
Specific Heat
33%