International audienceWe investigate the problem of heat conduction across a molecular junction connecting two nanoparticles, both in vacuum and in a liquid environment, using classical molecular dynamics simulations. In vacuum, the well-known result of a length independent conductance is recovered; its precise value, however, is found to depend sensitively on the overlap between the vibrational spectrum of the junction and the density of states of the nanoparticles that act as thermal contacts. In a liquid environment, the conductance is constant up to a crossover length, above which a standard Fourier regime is recovered
With the rise of atomic-scale devices such as molecular electronics and scanning probe microscopies,...
The nature and rate of thermal transport through molecular junctions depend on the length over which...
International audienceWe present an original method to estimate the conductivity of a single molecul...
We introduce a thermal conductance by using the fluctuation-dissipation theorem to analyze the heat ...
We compute the thermal conductance between two nanoparticles in contact based on the Molecular Dynam...
We investigate the general dependence of the thermal transport across nanoparticle-fluid interfaces ...
Understanding and controlling heat transport in molecular junctions would provide new routes to desi...
There has been growing research interest in the field of nanoscale thermal transport over the past t...
The nanoscale properties of materials can have a great influence on their macroscopic behavior; for ...
This thesis reports on the development and demonstration of a novel experimental technique to invest...
Abstract The behaviour of an Argon-copper nano-fluid spatially restricted in a nano-channel is studi...
Thermal conductivity of polymer-based (nano)composites is typically limited by thermal resistances o...
Single-molecule junctions have been extensively used to probe properties as diverse as electrical co...
In this thesis, we pursue mechanisms in the nonequilibrium transport of charge and heat, to elucidat...
Atomic and single-molecule junctions represent the ultimate limit to the miniaturization of electric...
With the rise of atomic-scale devices such as molecular electronics and scanning probe microscopies,...
The nature and rate of thermal transport through molecular junctions depend on the length over which...
International audienceWe present an original method to estimate the conductivity of a single molecul...
We introduce a thermal conductance by using the fluctuation-dissipation theorem to analyze the heat ...
We compute the thermal conductance between two nanoparticles in contact based on the Molecular Dynam...
We investigate the general dependence of the thermal transport across nanoparticle-fluid interfaces ...
Understanding and controlling heat transport in molecular junctions would provide new routes to desi...
There has been growing research interest in the field of nanoscale thermal transport over the past t...
The nanoscale properties of materials can have a great influence on their macroscopic behavior; for ...
This thesis reports on the development and demonstration of a novel experimental technique to invest...
Abstract The behaviour of an Argon-copper nano-fluid spatially restricted in a nano-channel is studi...
Thermal conductivity of polymer-based (nano)composites is typically limited by thermal resistances o...
Single-molecule junctions have been extensively used to probe properties as diverse as electrical co...
In this thesis, we pursue mechanisms in the nonequilibrium transport of charge and heat, to elucidat...
Atomic and single-molecule junctions represent the ultimate limit to the miniaturization of electric...
With the rise of atomic-scale devices such as molecular electronics and scanning probe microscopies,...
The nature and rate of thermal transport through molecular junctions depend on the length over which...
International audienceWe present an original method to estimate the conductivity of a single molecul...