The anisotropic heat conduction in solids is attractive for diverse applications such as
thermal management and thermal insulation. With highly anisotropic materials, the heat flow …

Heat conduction in crystalline materials occurs primarily due to propagating vibrational
waves, quantized as phonons. At submicron scales, the phonon mean free paths are often …

We present a calculation of the full thermal conductivity tensor for (001),(111), and (011)
surface orientations of the silicon-on-insulator (SOI) nanomembrane, based on solving the …

With technology node scaling down to 5 nm, the narrow device geometry confines the
material thermal conductivity and further aggravates the self-heating effect in gate-all-around …

In this work, the feasibility to recycle pure magnesium machining chips is first investigated
experimentally with a solid-state recycling technique of friction stir extrusion (FSE). Heat …

Nanoscale phonon transport within silicon structures subjected to internal heat generation
was explored. A Monte Carlo simulation was used. The simulation procedures differed from …

We report nonequilibrium molecular dynamics study of heat transfer in binary Lennard-
Jones superlattices. The influence of the characteristic height of the interface roughness and …

Heat transfer properties from ambient up to extremely high temperatures are a key feature of
advanced thermal protection and thermal exchange materials–like ceramic foams or fiber …

The effective thermal conductivity of nanofilms is size dependent due to the diffusive–
ballistic transport of phonons. In this paper, we investigate the cross-plane phonon transport …

In this article a constitutive model for the nano-scale heat conduction is proposed by
accounting for both the spatially and temporally non-local effects. Based on this model the …