Among materials having zincblende lattices, we find some that are characterized by a high thermal conductivity. This is a quite important feature for their application in semiconductor technologies and related devices. In this paper, we will discuss the thermal conductivity of two zincblende crystals (SiC and GaAs), stressing the role of lattice vibrations in producing high values of conductivity and of lattice defects in reducing it. In the framework of a model dealing with phonon dispersions and reliable scattering mechanisms, we will show how lattice thermal conductivity can be estimated from the Boltzmann Transport Equation in the case of any zincblende crystal
Zn1-x-yBexMgySe mixed crystals investigated in this work were grown from the melt by the high pressu...
Phononic crystals are periodic structured materials whose frequency spectrum is characterized by ban...
The thermal conductivity of wurtzite and zinc blende indium arsenide nanowires was measured using a ...
Among materials having zincblende lattices, we find some that are characterized by a high thermal co...
The thermal conductivities of model compound semiconductors, where the two species differ only in ma...
A new approach to evaluate the relaxation times of various collision events responsible for thermal ...
We compute the thermal conductivity, κ, of five representative III–V ternary alloys—namely InxGa1 −...
High-thermal conductivity materials are useful for thermal management applications and fundamental s...
Recent work has demonstrated that nanostructuring of a semiconductor material to form a phononic cry...
International audienceThis paper provides a general model for the lattice thermal conductivity in gr...
In this work, we discover anomalously low lattice thermal conductivity (<0.25 W/mK at 300 °C) in the...
Thermoelectric materials, which enable direct conversion between thermal and electrical energy, prov...
The thermal transport of a dielectric solid can be determined by means of the Boltzmann equation reg...
Using first principles, we calculate the lattice thermal conductivity of Bi, Sb, and Bi-Sb alloys, w...
The present work investigates heat conduction from lattice vibrations in a class of materials called...
Zn1-x-yBexMgySe mixed crystals investigated in this work were grown from the melt by the high pressu...
Phononic crystals are periodic structured materials whose frequency spectrum is characterized by ban...
The thermal conductivity of wurtzite and zinc blende indium arsenide nanowires was measured using a ...
Among materials having zincblende lattices, we find some that are characterized by a high thermal co...
The thermal conductivities of model compound semiconductors, where the two species differ only in ma...
A new approach to evaluate the relaxation times of various collision events responsible for thermal ...
We compute the thermal conductivity, κ, of five representative III–V ternary alloys—namely InxGa1 −...
High-thermal conductivity materials are useful for thermal management applications and fundamental s...
Recent work has demonstrated that nanostructuring of a semiconductor material to form a phononic cry...
International audienceThis paper provides a general model for the lattice thermal conductivity in gr...
In this work, we discover anomalously low lattice thermal conductivity (<0.25 W/mK at 300 °C) in the...
Thermoelectric materials, which enable direct conversion between thermal and electrical energy, prov...
The thermal transport of a dielectric solid can be determined by means of the Boltzmann equation reg...
Using first principles, we calculate the lattice thermal conductivity of Bi, Sb, and Bi-Sb alloys, w...
The present work investigates heat conduction from lattice vibrations in a class of materials called...
Zn1-x-yBexMgySe mixed crystals investigated in this work were grown from the melt by the high pressu...
Phononic crystals are periodic structured materials whose frequency spectrum is characterized by ban...
The thermal conductivity of wurtzite and zinc blende indium arsenide nanowires was measured using a ...