Dependence on quantum confinement of the in-plane effective mass inAs/InP quantum wells
- 15 June 1992
- journal article
- research article
- Published by American Physical Society (APS) in Physical Review B
- Vol. 45 (24) , 14052-14056
- https://doi.org/10.1103/physrevb.45.14052
Abstract
Experimental data obtained on undoped, As/InP, single quantum wells using the far-infrared, optically-detected cyclotron resonance technique show a strong increase of the in-plane effective mass of electrons with increasing quantum confinement. The experimental results are compared with a model calculation in which conduction-band nonparabolicity and wave-function penetration into the barrier material have been taken into account. The roughness of the surface between the quantum well and the barrier material is proposed to be the reason for the decrease in electron scattering time from 1.1 ps (1000 Å) to 120 fs (80 Å).
Keywords
This publication has 20 references indexed in Scilit:
- Properties of a dense quasi-two-dimensional electron-hole gas at high magnetic fieldsSolid State Communications, 1990
- Nonparabolicity effects in a quantum well: Sublevel shift, parallel mass, and Landau levelsPhysical Review B, 1989
- Optical, Hall and cyclotron resonance measurements of GaSb grown by molecular beam epitaxySemiconductor Science and Technology, 1988
- A study of the conduction band non-parabolicity, anisotropy and spin splitting in GaAs and InPSemiconductor Science and Technology, 1987
- Optically detected cyclotron resonance in a GaAs/As superlatticePhysical Review B, 1985
- Optical detection of cyclotron resonance in GaP and ZnTeSolid State Communications, 1985
- Optically Detected Cyclotron Resonance in AgBrPhysica Status Solidi (b), 1985
- Optical detection of cyclotron resonance of electron and holes in CdTeSolid State Communications, 1982
- Optical Detection of Cyclotron Resonance in SemiconductorsPhysical Review Letters, 1980
- Two-dimensional electron gas at a semiconductor-semiconductor interfaceSolid State Communications, 1979