Theoretical Investigation Of δ-doped Double Barriers Gaas/algaas Rtds At Varying Device Geometry And Temperature Dependence

dc.contributor.authorSingh, Man Mohan
dc.contributor.authorSiddiqui, Mohd
dc.contributor.authorAlvi, P.A.
dc.date.accessioned2023-09-11T07:51:52Z
dc.date.available2023-09-11T07:51:52Z
dc.date.issued2017
dc.description.abstractIn this article, we proposed a new concept of Si-delta doping in double barrier resonant tunneling diode heterostructure. The double barrier resonant tunneling diodes (DBRTDs) are investigated through the technique of contact block reduction (CBR) incorporating nonequilibrium Green’s function (NEGF) of a quantum structure in ballistic limits. This paper addresses the diverse characteristics of DBRTDs with variation in device parameters like barriers length, doping concentration and spacer layer. Dependence of operating temperature with the device geometry is also mentioned along with variation of Si-delta doping. Sharp delta doping of 1nm splits the well in two parts and study of current ratios and current density JP. Improvement in the performance of this semiconductor device has been utilized by this study with different device parameters. Furthermore, the comparison of these electrical properties with existing devices provide effective relation of Negative differential resistance (NDR), current ratio, conductance and band gap with device parameters variations which provide abilities of this device to ostentatious the functionality. Nextnano3 tool provide these characteristics and validate them with experimental research work existing in the literature survey.ar
dc.identifier.issn2170-161X
dc.identifier.issn2588-2082
dc.identifier.urihttp://hdl.handle.net/123456789/15517
dc.language.isoenar
dc.publisherOum-El-Bouaghi Universityar
dc.subjectNEGFar
dc.subjectPeak to valley current ratio (PVCR)ar
dc.subjectBallistic limitsar
dc.subjectDelta Dopingar
dc.subjectDevice Simulationar
dc.titleTheoretical Investigation Of δ-doped Double Barriers Gaas/algaas Rtds At Varying Device Geometry And Temperature Dependencear
dc.typeArticlear
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