QCAD Simulation and Optimization of Semiconductor Quantum Dots
Journal of Applied Physics
Abstract not provided.
Publications
Search results
Jump to search filtersThe QCAD Framework for Quantum Device Modeling
Abstract not provided.
Efficient Self-Consistent Quantum Transport Simulator for Quantum Well Devices
Abstract not provided.
Control Volume Finite Element Method for Drift-diffusion Equations on General Unstructured Grids
Abstract not provided.
The QCAD Framework for Quantum Device Modeling
Abstract not provided.
Poisson-Schrodinger Solvers in QCAD
Abstract not provided.
DCA Tool Use in Charon - A Case Study: CVFEM-SG Implementation in Charon2
Abstract not provided.
The QCAD Framework for Quantum Device Modeling
Abstract not provided.
QCAD Simulation and Optimization of Semiconductor Double Quantum Dots
Abstract not provided.
The QCAD framework for quantum device modeling
Abstract not provided.
The QCAD framework for quantum device modeling
Computational Electronics (IWCE), 2012 15th International Workshop on
We present the Quantum Computer Aided Design (QCAD) simulator that targets modeling quantum devices, particularly Si double quantum dots (DQDs) developed for quantum computing. The simulator core includes Poisson, Schrodinger, and Configuration Interaction solvers which can be run individually or combined self-consistently. The simulator is built upon Sandia-developed Trilinos and Albany components, and is interfaced with the Dakota optimization tool. It is being developed for seamless integration, high flexibility and throughput, and is intended to be open source. The QCAD tool has been used to simulate a large number of fabricated silicon DQDs and has provided fast feedback for design comparison and optimization.
Development of few-electron Si quantum dots for use as qubits
Abstract not provided.
Semiclassical Poisson and Self-Consistent Poisson-Schrodinger Solvers in QCAD
Abstract not provided.
CAD tools for quantum dots
Abstract not provided.
Results 101–114 of 114