We investigate current–voltage curves for describing electron transfer across the basal plane of a graphene electrode, considering a wide range of electronic coupling. Emphasis is put on the specific electronic structure of graphene. The influence of defects, which induce mid-gap states, is systematically analyzed. Also, the effect of “hot” electrons is explored in the nonadiabatic regime. We have calculated electronic transmission coefficients taking the Fc/Fc+ couple as a model system. The results are compared with those obtained for metal electrodes. The theoretical estimations are in qualitative agreement with available experimental data
Large potential steps are observed at the interfaces between metals and novel 2D materials. They can...
Measuring the transport of electrons through a graphene sheet necessarily involves contacting it wit...
Using electrical transport experiments and shot noise thermometry, we find strong evidence that “sup...
Since the discovery of graphene, this material is in the focus of intensive research in the field of...
We perform first-principles calculations for the electron-transport properties of graphene strips su...
The electronic transport across metal-graphene edge-contact structures is studied by first principle...
We report on a first-principles study of the conductance through graphene suspended between Al conta...
The chapter presents a theory of electron transport in graphene and discussion of the corresponding ...
2D electrode materials are often deployed on conductive supports for electrochemistry and there is a...
Density functional theory calculations have been performed to assess the electronic structure of gra...
The formalism of the nonperturbative description of transport phenomena in graphene in the framework...
This Colloquium discusses the coherent electron transport properties of non-ideal quasi-one-dimensio...
Electronic transport in a graphene junction is considered theoretically. Graphene is assumed to be d...
Improving electrochemical activity of graphene is crucial for its various applications, which requir...
As a new form of carbon, graphene is attracting intense interest as an electrode material with wides...
Large potential steps are observed at the interfaces between metals and novel 2D materials. They can...
Measuring the transport of electrons through a graphene sheet necessarily involves contacting it wit...
Using electrical transport experiments and shot noise thermometry, we find strong evidence that “sup...
Since the discovery of graphene, this material is in the focus of intensive research in the field of...
We perform first-principles calculations for the electron-transport properties of graphene strips su...
The electronic transport across metal-graphene edge-contact structures is studied by first principle...
We report on a first-principles study of the conductance through graphene suspended between Al conta...
The chapter presents a theory of electron transport in graphene and discussion of the corresponding ...
2D electrode materials are often deployed on conductive supports for electrochemistry and there is a...
Density functional theory calculations have been performed to assess the electronic structure of gra...
The formalism of the nonperturbative description of transport phenomena in graphene in the framework...
This Colloquium discusses the coherent electron transport properties of non-ideal quasi-one-dimensio...
Electronic transport in a graphene junction is considered theoretically. Graphene is assumed to be d...
Improving electrochemical activity of graphene is crucial for its various applications, which requir...
As a new form of carbon, graphene is attracting intense interest as an electrode material with wides...
Large potential steps are observed at the interfaces between metals and novel 2D materials. They can...
Measuring the transport of electrons through a graphene sheet necessarily involves contacting it wit...
Using electrical transport experiments and shot noise thermometry, we find strong evidence that “sup...