Transport Characterization of a Gated Molecular Device with Negative Differential Resistance
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Due to increasing demand for advances in minimization, power consumption and speed of electronic devices, new technologies are emerging in order to replace/support the current semiconductor technology. Molecular electronics is one of the promising technologies that can offer an extreme increase in the integration density, since single molecules could be employed as active electronic devices.This theoretical paper deals with the transport characteristics of a gated molecular device, employing dithiolated Oligo-Phenylene Vinylene (OPV) molecules as testbed. The output current curves show a gate voltage dependency. In addition, a negative differential resistance (NDR) is observed. Transmission spectra, charge density distributions and potential profiles of the molecular device are provided to explain of the gate dependency and NDR behavior.
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Mahmoud A; Lugli P (AMER INST PHYSICS, 2013)This paper provides a first-principles study for the transport behavior of molecular devices exhibiting wide bias range of negative differential resistance (NDR). The devices are composed of a diphenyl-dimethyl connected ...
Mahmoud A; Gagliardi A; Lugli P (Elsevier, 2015)Molecular electronics is one of the promising technologies for future electronic applications that is currently gaining a lot of interest. This is because if single molecule could be used as active electronic components ...
Mahmoud A; Gagliardi A; Lugli P (IEEE, 2014)Molecules that exhibit conductance switching have gained a lot of research interest in the recent years since they can be used as memory elements. There are some debates regarding the physics behind the conductance switching ...