Analysis of resonant tunneling structures for high frequency oscillator applications via time-dependent solution of Schrodinger's equation
Irfan Saadat, J. Peter Krusius
Abstract
Irfan Saadat, J. Peter Krusius
Abstract
The characteristics of a new compound-semiconductor heterostructure tunneling resonator are analyzed using the time-dependent Schrodinger equation. The device is formed by imbedding the usual double-barrier tunneling structure between two additional heterojunctions forming the reflectors of the resonator. Tunable quantum mechanical oscillations in the frequency range from 300 to 600 GHz are observed for typical device parameters. Two potential millimeter-wave device applications are proposed.>
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The characteristics of a new compound-semiconductor heterostructure tunneling resonator are analyzed using the time-dependent Schrodinger equation. The device is formed by imbedding the usual double-barrier tunneling structure between two additional heterojunctions forming the reflectors of the resonator. Tunable quantum mechanical oscillations in the frequency range from 300 to 600 GHz are observed for typical device parameters. Two potential millimeter-wave device applications are proposed.>
Key concepts: Quantum tunnelling, Schrödinger equation, Heterojunction, Resonator, Physics, Optoelectronics, Extremely high frequency, Semiconductor