The Use of Quantum Potentials for Confinement and Tunnelling in Semiconductor Devices
β Scribed by A. Asenov; J.R. Watling; A.R. Brown; D.K. Ferry
- Book ID
- 110428394
- Publisher
- Springer
- Year
- 2002
- Tongue
- English
- Weight
- 745 KB
- Volume
- 1
- Category
- Article
- ISSN
- 1569-8025
No coin nor oath required. For personal study only.
π SIMILAR VOLUMES
The classical traversal time is a well-defined functional of the carrier trajectory and in graded heterostructures acquires significant corrections due to the position-dependent effective mass. The quantum potential corrections for pure states and the corrections to quantum Monte Carlo for mixed sta
The usual approach to get the electron density n(F) for a model system of 2 N non-interacting particles is to,solve N wave equations for a self-consistent potential V(r) and summing up N wave function moduli. A modern wav to attain a direct solution of n(?', without recourse to\*N wave functions is
For the exciton (e-, h'J confined to a sphere (a simple model for the light absorption of a small semiconductor particle) we calculate some of the electronic states. We use procedures similar to those for the two-electron atom. For radii R smaller than the 'exciton radius" simple oneconfiguration wa