The Monte Carlo Method for Semiconductor Device Simulation
The application of the Monte Carlo method to the simulation of semiconductor devices is presented. A review of the physics of transport in semiconductors is given, followed by an introduction to the physics of semiconductor devices. The Monte Carlo algorithm is discussed in great details, and specific applications to the modelling of semiconductor devices are given. A comparison with traditional simulators is also presented.
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The Monte Carlo Method for Semiconductor Device Simulation
The application of the Monte Carlo method to the simulation of semiconductor devices is presented. A review of the physics of transport in semiconductors is given, followed by an introduction to the physics of semiconductor devices. The Monte Carlo algorithm is discussed in great details, and specific applications to the modelling of semiconductor devices are given. A comparison with traditional simulators is also presented.
169.99 In Stock
The Monte Carlo Method for Semiconductor Device Simulation

The Monte Carlo Method for Semiconductor Device Simulation

by Carlo Jacoboni, Paolo Lugli
The Monte Carlo Method for Semiconductor Device Simulation

The Monte Carlo Method for Semiconductor Device Simulation

by Carlo Jacoboni, Paolo Lugli

Hardcover(1989)

$169.99 
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Overview

The application of the Monte Carlo method to the simulation of semiconductor devices is presented. A review of the physics of transport in semiconductors is given, followed by an introduction to the physics of semiconductor devices. The Monte Carlo algorithm is discussed in great details, and specific applications to the modelling of semiconductor devices are given. A comparison with traditional simulators is also presented.

Product Details

ISBN-13: 9783211821107
Publisher: Springer Vienna
Publication date: 10/30/2002
Series: Computational Microelectronics
Edition description: 1989
Pages: 359
Product dimensions: 6.14(w) x 9.21(h) x (d)

Table of Contents

1 Introduction.- References.- 2 Charge Transport in Semiconductors.- 2.1 Electron Dynamics.- 2.2 Energy Bands.- 2.3 Scattering Mechanisms.- 2.4 Scattering Probabilities.- 2.5 Transport Equation.- 2.6 Linear Response and the Relaxation Time Approximation.- 2.7 Diffusion, Noise, and Velocity Auorrelation Function.- 2.8 Hot Electrons.- 2.9 Transient Transport.- 2.10 The Two-dimensional Electron Gas.- References.- 3 The Monte Carlo Simulation.- 3.1 Fundamentals.- 3.2 Definition of the Physical System.- 3.3 Initial Conditions.- 3.4 The Free Flight, Self Scattering.- 3.5 The Scattering Process.- 3.6 The Choice of the State After Scattering.- 3.7 Collection of Results for Steady-State Phenomena.- 3.8 The Ensemble Monte Carlo (EMC).- 3.9 Many Particle Effects.- 3.10 Monte Carlo Simulation of the 2DEG.- 3.11 Special Topics.- 3.12 Variance-reducing Techniques.- 3.13 Comparison with Other Techniques.- References.- 4 Review of Semiconductor Devices.- 4.1 Introduction.- 4.2 Historical Evolution of Semiconductor Devices.- 4.3 Physical Basis of Semiconductor Devices.- 4.4 Comparison of Semiconductor Devices.- References.- 5 Monte Carlo Simulation of Semiconductor Devices.- 5.1 Introduction.- 5.2 Geometry of the System.- 5.3 Particle-Mesh Force Calculation.- 5.4 Poisson Solver and Field Distribution.- 5.5 The Monte Carlo Simulation of Semiconductor Devices.- References.- 6 Applications.- 6.1 Introduction.- 6.2 Diodes.- 6.3 MESFET.- 6.4 HEMT and Heterojunction Real Space Transfer Devices.- 6.5 Bipolar Transistor.- 6.6 HBT.- 6.7 MOSFET and MISFET.- 6.8 Hot Electron Transistors.- 6.9 Permeable Base Transistor.- 6.10 Comparison with Traditional Simulators.- References.- Appendix A. Numerical Evaluation of Some Integrals of Interest.- References.- Appendix B. Generation of Random Numbers.- References.
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