Journal of Physics Condensed Matter · 2010 · 100 citations · 90 references
EngineeringChemistryCharge TransportMolecular ComputingTunneling MicroscopyNanoelectronicsMolecular CommunicationCharge Carrier TransportBiophysicsMaterials ScienceMolecular ElectrochemistryNanotechnologyPhysical ChemistryElectron TransportQuantum ChemistryMolecular EngineeringMolecule DipoleMolecule-based TransportNatural SciencesSurface ScienceApplied PhysicsMolecular SwitchMmm DevicesMolecule-based Material
In this review, possibilities to modify intentionally the electronic transport properties of metal/molecule/metal devices (MMM devices) are discussed. Here especially the influence of the metal work function, the metal-molecule interface, the molecule dipole and different tunneling mechanisms are considered. A route to evaluate the effective surface work function of metal-molecule systems is given and, based on experimental results, an exemplary estimation is performed. The electron transport across different metal-molecule interfaces is characterized by relating transmission coefficients extracted from experimentally derived molecular conductances, decay constants or tunneling barrier heights. Based on the reported results the tunneling decay constant can be assumed to be suitable to characterize intrinsic molecular electron transport properties, while the nature of the metal-molecule contacts is properly described by the transmission coefficient. A clear gradation of transmission efficiencies of metal-anchoring group combinations can be given.
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Physics of Semiconductor Devices
Geoffrey Pridham · Electronics and Power · 1970 · 4K citations
Semiconductors, Semiconductor Devices, Electrical Engineering +6
Conductance of a Molecular Junction
Mark A. Reed, Chongwu Zhou, C. J. Muller et al. · Science · 1997 · 3.4K citations