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Nonlocal theory for heat transport at high frequencies
Yee Kan Koh
,
David G. Cahill
, Bo Sun
Materials Science and Engineering
Mechanical Science and Engineering
Materials Research Laboratory
Physics
Grainger College of Engineering
Research output
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peer-review
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Engineering
Time Domain
100%
Effective Thermal Conductivity
100%
Heat Flux
100%
Thermal Conductivity
50%
Boltzmann Equation
50%
Frequency Domain
50%
Spot Size
50%
Mean Free Path
50%
Upper Limit
50%
Alloy
50%
Relative Phase
50%
Interfacial Thermal Resistance
50%
Thermal Penetration Depth
50%
High Temperature Gradient
50%
Infinite Solid
50%
Temperature Distribution
50%
Boundary Condition
50%
Physics
Thermal Conductivity
100%
Conductive Heat Transfer
100%
Phonon
100%
Crystal
100%
Laser Pulse
33%
Boundary Condition
33%
Temperature Gradients
33%
Mean Free Path
33%
Thermal Resistance
33%
Temperature Distribution
33%
Ballistics
33%
Relative Phase
33%
Alloy
33%
Boltzmann Transport Equation
33%
Material Science
Thermal Conductivity
100%
Laser Pulse
33%
Alloy
33%
Heat Resistance
33%
Keyphrases
Ballistic Phonons
20%
Empirical Interpretation
20%