The conductance of single molecule junctions is calculated using a Landauer approach combined with many-body perturbation theory to account for electron correlation. Contrary to intuition, a mere correction of the density-functional theory eigenvalues is found not to affect noticeably the zero-bias conductance. To improve the agreement with experiments, it is necessary to go beyond this standard procedure by also updating the wave functions. This leads to both the reduction of the molecular character and the increase of the e(g)(d(z)2) character on gold atoms around the Fermi energy
A comprehensive overview of the physical mechanisms that control electron transport and the characte...
A method is presented that allows for the calculation using density functional theory (DFT) of the t...
A method is presented that allows for the calculation using density functional theory (DFT) of the t...
International audienceThe conductance of single molecule junctions is calculated using a Landauer ap...
Most theoretical studies of nanoscale transport in molecular junctions rely on the combination of th...
In this work we describe a theoretical model that we have developed for describing electronic transp...
An ab initio based theoretical approach to describe nonequilibrium many-body effects in molecular tr...
An ab initio based theoretical approach to describe nonequilibrium many-body effects in molecular tr...
In this work, we develop a many-body theory of electronic transport through single molecule junction...
We show that standard first principles calculations of transport through single molecules miss excha...
We show that standard first principles calculations of transport through single molecules miss excha...
We show that standard first principles calculations of transport through single molecules miss excha...
The most probable single-molecule conductance of each member of a series of 12 conjugated molecular ...
Using self-energy-corrected density functional theory (DFT) and a coherent scattering-state approach...
We modulate the conductance of electrochemically inactive molecules in single-molecule junctions usi...
A comprehensive overview of the physical mechanisms that control electron transport and the characte...
A method is presented that allows for the calculation using density functional theory (DFT) of the t...
A method is presented that allows for the calculation using density functional theory (DFT) of the t...
International audienceThe conductance of single molecule junctions is calculated using a Landauer ap...
Most theoretical studies of nanoscale transport in molecular junctions rely on the combination of th...
In this work we describe a theoretical model that we have developed for describing electronic transp...
An ab initio based theoretical approach to describe nonequilibrium many-body effects in molecular tr...
An ab initio based theoretical approach to describe nonequilibrium many-body effects in molecular tr...
In this work, we develop a many-body theory of electronic transport through single molecule junction...
We show that standard first principles calculations of transport through single molecules miss excha...
We show that standard first principles calculations of transport through single molecules miss excha...
We show that standard first principles calculations of transport through single molecules miss excha...
The most probable single-molecule conductance of each member of a series of 12 conjugated molecular ...
Using self-energy-corrected density functional theory (DFT) and a coherent scattering-state approach...
We modulate the conductance of electrochemically inactive molecules in single-molecule junctions usi...
A comprehensive overview of the physical mechanisms that control electron transport and the characte...
A method is presented that allows for the calculation using density functional theory (DFT) of the t...
A method is presented that allows for the calculation using density functional theory (DFT) of the t...