Quantum dot modeling using NEMO 3-D
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quantum dots nanotubes↗
Engineering topics
Klimeck, G.
Publications and source records attributed to Klimeck, G..
Electron-hole correlations in semiconductor quantum dots with tight-binding wave fuctions
The electron-hole states of semiconductor quantum dots are investigated within the framework of empirical tight-binding descriptions for Si, as an example of an indirect-gap material, and InAs and CdSe as examples of typical III-V and II-VI direct-gap materials.
Electron-hole quantum↗
A tiger by the tail: the momentum operator in tight-binding
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quantum device heterostructure transport↗
Quantum dot modeling using NEMO 3-D
MS PowerPoint Presentation.
quantum devices naoelectronics quantum dot alloy i↗
Quantum Dot Modeling Using NEMO 3-D
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quantum dot tight binding parallel algorithms↗
Nanoelectric Modeling (NEMO): Moving from Commercial Grade 1-D Simulation to Prototype 3-D Simulation
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NEMO RTD tunneling software tool quantum dot↗
Quantum dots based rad-hard computing and sensors
Quantum Dots (QDs) are solid state structures made of semiconductors or metals that confine a small number of electrons into a small space. The confinement of electrons is achieved by the placement of some insulating material(s) around a central, well conducting region. Thus, they can ve viewed as artificial atoms.
quantum↗
Quantum Dots Based Rad-Hard Computing and Sensors
Quantum Dots (QDs) are solid-state structures made of semiconductors or metals that confine a small number of electrons into a small space. The confinement of electrons is achieved by the placement of some insulating material(s) around a central, well-conducting region. Thus, they can be viewed as artificial atoms. They therefore represent the ultimate limit of the semiconductor device scaling. Additional information is contained in the original extended abstract.
Fijany, A.↗
EHWPACK: An evolvable hardware environment using the SPICE simulator and the Field Programmable Transistor Array
This paper describes the EHW development system, a tool that performs the evolutionary synthesis of electronic circuits, using the SPICE simulator and the Field Programmable Transistor Array hardware (FPTA) developed at JPL.
evolvable hardware spice simulations↗
Evolution of Analog Circuits on Field Programmable Transistor Arrays
Evolvable Hardware (EHW) refers to HW design and self-reconfiguration using evolutionary/genetic mechanisms. The paper presents an overview of some key concepts of EHW, describing also a set of selected applications.
evolvable hardware reconfigurable hardware genetic↗
EHWPack: a Parallel Software/Hardware Environment for Evolvable Hardware
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evolvable hardware reconfigurable hardware genenti↗
Automistic Simulation of Quantum Dots Including Strain and Bandstructure and Full Band Simulation of Hole Transport in 1-D Heterostructures
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quantum dots strain tight binding hole transport↗
Off-zone-center or indirect band-gap-like hole transport in heterostructures
Unintuitive hole transport phenomena through heterostructures are presented.
Current voltage calculations tight-binding paramet↗
Developpment of a 3-D Nanoelectronic Modeling Tool - NEMO-3D
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nanoelectronic nanotechnology hetero structures ge↗
sp3s* and sp3d5s* Tight-Binding Parameter Sets for GaAs, AlAs, InAs, GaSb, AlSb, InSb, GaP, AlP, InP for Quantum Dot Simulations
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tight-binding parameterization quantum dots GaAs I↗
sp3s and sp3d5s Tight-Binding Parameter Sets for GaAs, AIAs, InAs, GaSb, AISb, InSb, GaP, AIP, InP, for Quantum Dot Simulations
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structures genetic algarithm↗
Nanoelectronic device calculations from an atomistic point of view: empirical tight-binding models for semiconductor heterostructures
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quantum device heterostructure transport↗
sp3s* Tight-Binding Parameters for Transport Simulations in Compound Semiconductors
A genetic algorithm approach is used to fit orbital interaction energies of sp3s* tight-binding models for the nine binary compound semiconductors consistent of Ga, Al, In and As, P, Sb at room temperature.
sp3s* tight-binding genetic algorithm effective ma↗