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Additive decomposition applied to the semiconductor drift-diffusion model
Elizabeth J. Brauer
, Marek Turowski
, James M. Mcdonough
Informatics, Computing, and Cyber Systems, School of
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Keyphrases
Semiconductors
100%
Additive Decomposition
100%
Drift-diffusion Model
100%
Additive Decomposition Method
50%
Parallelization
25%
Electrical Simulation
25%
Navier-Stokes Equations
25%
Numerical Techniques
25%
Burgers
25%
Thermoelectric Properties
25%
Semiconductor Device Modeling
25%
Physical Size
25%
Reverse Bias
25%
Grid Section
25%
Grid Approach
25%
Computational Efficiency
25%
Memory Requirements
25%
Large Scale Grid
25%
PIN Diode
25%
Turbulent Fluidization
25%
Power Semiconductor Devices
25%
New numerical Scheme
25%
Forward Bias
25%
Decomposition Method
25%
Engineering
Diffusion Model
100%
Additive Decomposition
100%
Semiconductor Device
33%
Numerical Methods
16%
Fluid Flow
16%
Navier-Stokes Equation
16%
Reverse Bias
16%
Scale Space
16%
Physical Size
16%
Memory Requirement
16%
Computational Efficiency
16%
Forward Bias
16%
Numerical Technique
16%
Mathematics
Diffusion Model
100%
Additive Decomposition
100%
Decomposition Method
33%
Navier-Stokes Equation
16%
Numerical Technique
16%
Parallelization
16%
Numerical Methods
16%
Material Science
Semiconductor Device
100%
Fluid Flow
50%