Managing heat dissipation in nanoscale electronic devices and understanding the underlying mechanisms complicated due to the reduced scale at the interface between the various materials. Here, the authors detect an extremely small interface thermal resistance is in amorphous-(a-) GeS/epitaxial-(e-) PbTe superlattice and perform calculations showing that heat conduction in nanoscale systems with high density interfaces might be controlled by phonon density of states and group velocity similarities
International audienceThermal transport properties of crystalline/amorphous silicon superlattices us...
This dissertation presents experimental studies of heat transport by phonons in crystalline material...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Mechanical Engineering, 2015.Ca...
Nanoscale heat transport has become a crucial research topic due to the growing importance of nanote...
International audienceThe value measured in the amorphous structure with the same chemical compositi...
Interfaces impede heat flow in micro/nanostructured systems. Conventional theories for interfacial t...
We report finite-volume simulations of the phonon Boltzmann transport equation (BTE) for heat conduc...
International audienceWe provide a derivation allowing the calculation of thermal conductance at int...
A comprehensive description of how heat and temperature evolve on nanometer to submicron length-scal...
Coherent phonon heat conduction has recently been confirmed experimentally in superlattice structure...
The effect of electron-phonon (e-ph) coupling on thermal transport across metal-nonmetal interfaces ...
Phonon dispersion relations and electron-phonon coupling of hole-doped trigonal GeTe have been compu...
Twin interfaces are easily formed in superlattices due to their lower interfacial energy. However, t...
Understanding thermal transport across metal/semiconductor interfaces is crucial for the heat d...
Phonons represent the quantization of lattice vibration, responsible for heat transfer in semiconduc...
International audienceThermal transport properties of crystalline/amorphous silicon superlattices us...
This dissertation presents experimental studies of heat transport by phonons in crystalline material...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Mechanical Engineering, 2015.Ca...
Nanoscale heat transport has become a crucial research topic due to the growing importance of nanote...
International audienceThe value measured in the amorphous structure with the same chemical compositi...
Interfaces impede heat flow in micro/nanostructured systems. Conventional theories for interfacial t...
We report finite-volume simulations of the phonon Boltzmann transport equation (BTE) for heat conduc...
International audienceWe provide a derivation allowing the calculation of thermal conductance at int...
A comprehensive description of how heat and temperature evolve on nanometer to submicron length-scal...
Coherent phonon heat conduction has recently been confirmed experimentally in superlattice structure...
The effect of electron-phonon (e-ph) coupling on thermal transport across metal-nonmetal interfaces ...
Phonon dispersion relations and electron-phonon coupling of hole-doped trigonal GeTe have been compu...
Twin interfaces are easily formed in superlattices due to their lower interfacial energy. However, t...
Understanding thermal transport across metal/semiconductor interfaces is crucial for the heat d...
Phonons represent the quantization of lattice vibration, responsible for heat transfer in semiconduc...
International audienceThermal transport properties of crystalline/amorphous silicon superlattices us...
This dissertation presents experimental studies of heat transport by phonons in crystalline material...
Thesis: Ph. D., Massachusetts Institute of Technology, Department of Mechanical Engineering, 2015.Ca...