As the feature size of electronic devices continues to decrease, thermal properties become a more important consideration. In this chapter, theoretical and experimental considerations related to the thermal properties of metallic films and wires are presented. It is shown that many features can be understood using the Wiedemann-Franz law and standard models for surface and grain-boundary electron scattering. More sophisticated models including solutions to the Boltzmann transport equation are also described. Finally, contributions to thermal conductivity due to phonons are shown to make only a small contribution. © 2014 Woodhead Publishing Limited. All rights reserved
The thermal conductivity of thin films of copper (400-8000 Å) has been measured in the temperat...
This chapter describes the role of grain boundaries and surfaces in the resistivity of metallic thin...
We study the electron thermal transport in granular metals at large tunnel conductance between the g...
As the feature size of electronic devices continues to decrease, thermal properties become a more im...
We present measurements of thermal and electrical conductivity of polycrystalline permalloy (Ni-Fe),...
On the basis of the Boltzmann equation, the authors propose a model that includes scattering from bo...
This lecture gives an introduction to the basic physics of the electrical conductivity of metals, it...
The objective of this work is to study thermal transport in bulk, nano-structured, and two-dimension...
Many physical properties of metals can be understood in terms of the free electron model, as proven ...
The properties of thermal transport in solids are very important in research and industry. Different...
To describe the thermal behaviour of nanostructured materials and nanoelectronic devices, new proper...
A simplified approach is introduced to describe the thermal behavior of a thin metal film exposed to...
We have measured the thermal conductivity of several superconducting films. These films were evapora...
The well-known low-pressure monatomic gas thermal conductivity expression is based on the Maxwell-Bo...
Motivated by recent experiments [Science 355, 1192 (2017); Nat. Nanotechnol. 12, 430 (2017)], we pre...
The thermal conductivity of thin films of copper (400-8000 Å) has been measured in the temperat...
This chapter describes the role of grain boundaries and surfaces in the resistivity of metallic thin...
We study the electron thermal transport in granular metals at large tunnel conductance between the g...
As the feature size of electronic devices continues to decrease, thermal properties become a more im...
We present measurements of thermal and electrical conductivity of polycrystalline permalloy (Ni-Fe),...
On the basis of the Boltzmann equation, the authors propose a model that includes scattering from bo...
This lecture gives an introduction to the basic physics of the electrical conductivity of metals, it...
The objective of this work is to study thermal transport in bulk, nano-structured, and two-dimension...
Many physical properties of metals can be understood in terms of the free electron model, as proven ...
The properties of thermal transport in solids are very important in research and industry. Different...
To describe the thermal behaviour of nanostructured materials and nanoelectronic devices, new proper...
A simplified approach is introduced to describe the thermal behavior of a thin metal film exposed to...
We have measured the thermal conductivity of several superconducting films. These films were evapora...
The well-known low-pressure monatomic gas thermal conductivity expression is based on the Maxwell-Bo...
Motivated by recent experiments [Science 355, 1192 (2017); Nat. Nanotechnol. 12, 430 (2017)], we pre...
The thermal conductivity of thin films of copper (400-8000 Å) has been measured in the temperat...
This chapter describes the role of grain boundaries and surfaces in the resistivity of metallic thin...
We study the electron thermal transport in granular metals at large tunnel conductance between the g...