Tags: quantum well
Resources
Tools
- 10.0 Ranking McLennan: Resonant Tunneling Diode Simulator
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10.0 Ranking Paul: Band Structure Lab
Band Structure Lab
Type Tools Contributor(s) Abhijeet Paul, Mathieu Luisier, Neophytos Neophytou, Raseong Kim, Michael McLennan, Mark Lundstrom, Gerhard Klimeck Date 19 May. 2006 Avg. Rating (3) Rate this Computes the electronic structure of various materials in the spatial configuration of bulk (infinitely periodic), quantum wells (confined in one dimension, infinitely periodic in 2 dimensions), and wires (confined in 2 dimensions and infinitely periodic i
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9.7 Ranking Wang: ABACUS - Assembly of Basic ...
ABACUS - Assembly of Basic Applications for Coordinated Understanding of Semiconductors
Type Tools Contributor(s) Xufeng Wang, Dragica Vasileska, Gerhard Klimeck Date 08 Aug. 2008 Avg. Rating (1) Rate this One-stop-shop for teaching semiconductor device education
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9.7 Ranking Vasileska: Schred
Schred
Type Tools Contributor(s) Dragica Vasileska, Shaikh S. Ahmed, Matteo Mannino, Akira Matsudaira, Gerhard Klimeck, Mark Lundstrom Date 09 Feb. 2006 Avg. Rating (4) Rate this Calculates the envelope wavefunctions and the corresponding bound-state energies in a typical MOS (Metal-Oxide-Semiconductor) or SOS (Semiconductor-Oxide- Semiconductor) structure and a typical SOI structure
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9.6 Ranking Agarwal: Resonant Tunneling Diode ...
Resonant Tunneling Diode Simulation with NEGF
Type Tools Contributor(s) Samarth Agarwal, Mathieu Luisier, Zhengping Jiang, Michael McLennan, Gerhard Klimeck Date 05 Sep. 2008 Avg. Rating (1) Rate this Simulate 1D RTDs using NEGF.
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7.0 Ranking Gavrilenko: Quantum Bound State
Quantum Bound State
Type Tools Contributor(s) Alexander Gavrilenko, Heng Li Date 17 May. 2007 Avg. Rating (0) Rate this Particle in a box - The particle in a box (or the infinite potential well) is a simple idealized system that is completely solved within quantum mechanics. The infinite potential well is a finite sized region in space (the box) with an infinite potential at its boundaries (the walls). A particle ...
Learning Modules
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6.3 Ranking Vasileska: Modeling Single and Dual-Gate ...
Modeling Single and Dual-Gate Capacitors using SCHRED
Type Learning Modules Contributor(s) Dragica Vasileska Date 31 Mar. 2006 Avg. Rating (0) Rate this SCHRED stands for self-consistent solver of the 1D Poisson and 1D effective mass Schrodinger equation as applied to modeling single gate or dual-gate capacitors. The program incorporates many features such as choice of degenerate and non-degenerate statistics for semiclassical charge description, ...
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5.7 Ranking Fodor: Introduction to Schred
Introduction to Schred
Type Learning Modules Contributor(s) James K Fodor, Jing Guo Date 28 Jun. 2007 Avg. Rating (0) Rate this This learning module introduces nanoHUB users to the Schred simulator. A brief introduction to Schred is presented, followed by voiced presentations featuring the simulator in action. Upon completion of this module, users should be able to use this simulator to gain valuable insight into the ...
Teaching Materials
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5.8 Ranking Vasileska: Exercise for PCPBT: Stationary ...
Exercise for PCPBT: Stationary Perturbation Theory
Type Teaching Materials Contributor(s) Dragica Vasileska, Gerhard Klimeck Date 29 Jul. 2008 Avg. Rating (0) Rate this This exercise allows us to test the first and second order stationary perturbation theory and explain mathematically the shift in the energies due to a small perturbation in a quantum well.www.eas.asu.edu/~vasileskNSF
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5.2 Ranking Ferry: Homework Assignment: Periodic ...
Homework Assignment: Periodic Potentials
Type Teaching Materials Contributor(s) David K. Ferry Date 31 Jan. 2008 Avg. Rating (0) Rate this Using the Periodic Potential Lab on nanoHUB determine the allowed bands for an energy barrier of 5 eV, a periodicity W = 0.5nm, and a barrier thickness of 0.1nm. How do these bands change if the barrier thickness is changed to 0.2 nm?
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5.1 Ranking Ferry: Bandstructure Homework Assignment ...
Bandstructure Homework Assignment - Finite Height Quantum Well
Type Teaching Materials Contributor(s) David K. Ferry Date 31 Jan. 2008 Avg. Rating (0) Rate this Use the Resonant Tunneling Diodes simulation tool on nanoHUB to explore the effects of finite height quantum wells. Looking at a 2 barrier device, 300 K, no bias, other standard variables, and 3 nm thick barriers and a 7 nm quantum well, determine the energies of the two lowest quasi-bound states.
Publications
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6.8 Ranking McLennan: Quantum Ballistic Transport in ...
Quantum Ballistic Transport in Semiconductor Heterostructures
Type Publications Contributor(s) Michael McLennan Date 27 Aug. 2007 Avg. Rating (0) Rate this The development of epitaxial growth techniques has sparked a growing interest in an entirely quantum mechanical description of carrier transport. Fabrication methods, such as molecular beam epitaxy (MBE), allow for growth of ultra-thin layers of differing material compositions. Structures can be ...
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5.2 Ranking Kharche: Valley splitting in strained ...
Valley splitting in strained silicon quantum wells modeled with 2 degree miscuts, step disorder, and alloy disorder
Type Publications Contributor(s) Neerav Kharche, marta prada, Timothy Boykin, Gerhard Klimeck Date 14 Jan. 2008 Avg. Rating (0) Rate this Valley splitting (VS) in strained SiGe/Si/SiGe quantum wells grown on (001) and 2° miscut substrates is computed in a magnetic field. Calculations of flat structures significantly overestimate, while calculations of perfectly ordered structures underestimate experimentally observed VS. Step ...
Downloads
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6.6 Ranking Vasileska: Schred Source Code Download
Schred Source Code Download
Type Downloads Contributor(s) Dragica Vasileska, Zhibin Ren Date 09 Mar. 2005 Avg. Rating (2) Rate this Schred 2.0 calculates the envelope wavefunctions and the corresponding bound-state energies in a typical MOS (Metal-Oxide-Semiconductor) or SOS (Semiconductor-Oxide- Semiconductor) structure and a typical SOI structure by solving self-consistently the one-dimensional (1D) Poisson equation and the ...
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5.1 Ranking McLennan: SEQUAL 2.1 Source Code Download
SEQUAL 2.1 Source Code Download
Type Downloads Contributor(s) Michael McLennan Date 09 Mar. 2005 Avg. Rating (0) Rate this SEQUAL 2.1 is a device simulation program that computes Semiconductor Electrostatics by Quantum Analysis. Given a device, SEQUAL will compute the electron density and the current density using a quantum mechanical, collisionless description of electron propagation. It was designed to be a ...
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