Fullerene-based molecular nanobridges: A first-principles study
arXiv:cond-mat/0101359 · doi:10.1103/PhysRevB.64.115411
Abstract
Building upon traditional quantum chemistry calculations, we have implemented an {\em ab-initio} method to study the electrical transport in nanocontacts. We illustrate our technique calculating the conductance of C molecules connected in various ways to Al electrodes characterized at the atomic level. Central to a correct estimate of the electrical current is a precise knowledge of the local charge transfer between molecule and metal which, in turn, guarantees the correct positioning of the Fermi level with respect to the molecular orbitals. Contrary to our expectations, ballistic transport seems to occur in this system.
4 pages in two-column format
Cited by in corpus (44)
- Density functional method for nonequilibrium electron transport
- Atomic-scale control of graphene magnetism using hydrogen atoms
- Advances and challenges in single-molecule electron transport
- Electrical transport through single-molecule junctions: from molecular orbitals to conduction channels
- A first-principles approach to electrical transport in atomic-scale nanostructures
- The Smallest Molecular Switch
- First-principles phase-coherent transport in metallic nanotubes with realistic contacts
- Theory of Current and Shot Noise Spectroscopy in Single-Molecular Quantum Dots with Phonon Mode
- Molecular transport calculations with Wannier functions
- Benchmark density functional theory calculations for nano-scale conductance
- Carbon nanotube, graphene, nanowire, and molecule-based electron and spin transport phenomena using the non-equilibrium Green function method at the level of first principles theory
- Current-voltage Characteristics of Molecular Conductors: Two versus Three Terminal
- Formation of a Metallic Contact: Jump to Contact Revisited
- Linear Chains of Styrene and Methyl-Styrene Molecules and their Heterojunctions on Silicon: Theory and Experiment
- Dynamical Mean-Field Theory for Molecular Electronics: Electronic Structure and Transport Properties
- Magnetic and orbital blocking in Ni nanocontacts
- First-Principles Study on Electron-Conduction Properties of C Chains
- Theoretical study of the charge transport through C60-based single-molecule junctions
- Electronic Transport in Fullerene C20 Bridge Assisted by Molecular Vibrations
- Coulomb blockade in electron transport through a C molecule from first principles
- Kondo effect and conductance of nanocontacts with magnetic impurities
- Electronic transport and vibrational modes in the smallest molecular bridge: H2 in Pt nanocontacts
- Critical comparison of electrode models in density functional theory based quantum transport calculations
- Single channel conductance of H molecules attached to platinum or palladium electrodes
- Thermal conductance and thermoelectric figure of merit of C-based single-molecule junctions: electrons, phonons, and photons
- Transport in magnetically ordered Pt nanocontacts
- Bound States in Time-Dependent Quantum Transport: Oscillations and Memory Effects in Current and Density
- Theory of projections with non-orthogonal basis sets: Partitioning techniques and effective Hamiltonians
- Metal contacts in carbon nanotube field effect transistors: Beyond the Schottky barrier paradigm
- Orbital eigenchannel analysis for ab-initio quantum transport calculations
- The Role of Bound States in Time-Dependent Quantum Transport
- A group-theoretic approach to the origin of chirality-induced spin selectivity in non-magnetic molecular junctions
- Negative differential resistance in nanoscale transport in the Coulomb blockade
- Origin of the quasi-universality of the graphene minimal conductivity
- The role of first neighbors geometry in the electronic and mechanical properties of atomic contacts
- Mechanical, Electrical, and Magnetic Properties of Ni Nanocontacts
- High electrical conductivity of single metal-organic chains
- Modelling of inelastic effects in molecular electronics
- Many-body current formula and current conservation for non-equilibrium fully interacting nanojunctions
- Electronic Transport in Gadolinium Atomic-Size Contacts
- Effects of valence, geometry and electronic correlations on transport in transition metal benzene sandwich molecules
- Directional bonding explains high conductance values of atomic contacts in bcc metals
- Localized basis sets for unbound electrons in nanoelectronics
- Dynamic bonding influenced by the proximity of adatoms to one-atom high step edges