Modeling of resonant-tunneling diode with uniform and graded emitter
Artem Fediai, Volodymyr Moskaliuk
Abstract
Artem Fediai, Volodymyr Moskaliuk
Abstract
Envelope function approach for resonant-tunneling diode (RTD) modeling is developed further. We have found a way of simultaneous treatment of scattering in the quantum well (QW) and incoherent transport, yielding better agreement with experimental I-V characteristics of RTDs with graded and uniform emitter. We also included all our previously developed improvements to the model to obtain maximum adequacy. Since I-V characteristic's shape is affected by numerous factors, we describe our vision on significance of each of them, based on the fulfilled verification.
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Envelope function approach for resonant-tunneling diode (RTD) modeling is developed further. We have found a way of simultaneous treatment of scattering in the quantum well (QW) and incoherent transport, yielding better agreement with experimental I-V characteristics of RTDs with graded and uniform emitter. We also included all our previously developed improvements to the model to obtain maximum adequacy. Since I-V characteristic's shape is affected by numerous factors, we describe our vision on significance of each of them, based on the fulfilled verification.
Key concepts: Common emitter, Quantum tunnelling, Resonant-tunneling diode, Envelope (radar), Diode, Scattering, Quantum well, Function (biology)