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Semiconductor physics: band gap, carrier transport, junctions, and device models.
This module provides comprehensive semiconductor physics modeling including band structure, carrier concentrations, drift-diffusion transport, p-n junctions, Schottky barriers, recombination mechanisms, MOSFET models, and analysis tools.
Structs§
- Band
Structure - Band structure parameters of a semiconductor.
- Carrier
Concentration - Carrier concentration calculations for a semiconductor.
- Drift
Diffusion - Drift-diffusion transport model for semiconductors.
- Mosfet
Model - MOSFET (Metal-Oxide-Semiconductor Field-Effect Transistor) model.
- PnJunction
- P-N junction model.
- Recombination
Model - Recombination mechanisms in semiconductors.
- Schottky
Barrier - Schottky barrier (metal-semiconductor) junction model.
- Semiconductor
Analysis - Analysis tools for semiconductor properties.
Enums§
- Doping
Type - Doping type of a semiconductor.
Constants§
- EPSILON_
0 - Permittivity of free space in F/m.
- HBAR
- Reduced Planck constant in J·s.
- H_
PLANCK - Planck constant in J·s.
- K_
BOLTZMANN_ EV - Boltzmann constant in eV/K.
- K_
BOLTZMANN_ J - Boltzmann constant in J/K.
- M_
ELECTRON - Free electron mass in kg.
- Q_
ELECTRON - Elementary charge in C.
Functions§
- thermal_
voltage - Thermal voltage at temperature T: V_T = k_B * T / q.