A, B, C, D, E, F, G, H, I, J, K, L, M, N, O, P, Q, R, S, T, U, V, W, X, Y, Z,
A, | |
Abbreviations; Index of | [1], |
Absolute temperature | [1], |
Absorption coefficient | [1], |
Acceptors | [1], |
Accumulation | [1], |
Accumulation; in heterojunctions | [1], |
Advanced | [1], |
Affinity | [1], |
Aluminothermic process for Si production | [1], |
Amphoteric doping | [1], |
Anisotropic dissolution | [1], |
Annealing of defects | [1], |
Annealing; after ion implantation | [1], |
Approximations; free electron gas | [1], |
Area density | [1], |
Area emitting LED | [1], |
Arrhenius plot | [1], |
Auger recombination | [1], [2], [3], |
Avalanche breakdown | [1], |
Axial modes | [1], |
B, | |
Backbone I module | [1], |
Backbone II module | [1], |
Ballistic carriers | [1], |
Band bending | [1], |
Band gaps | [1], |
Band-band recombination channel | [1], |
Base of a crystal | [1], |
Base of bipolar transistor | [1], |
Base transit time | [1], |
Basics modules | [1], |
Bayer Solar | [1], |
Beer's law | [1], |
Bell laboratories; the most famours research labs in the world around 1960 | [1], |
Beweglichkeit; Definition | [1], |
Bipolar transistor | [1], |
Black body radiation | [1], |
Black box; for p-n junctions | [1], |
Blakeslee | [1], |
Bloch theorem | [1], |
Bloch wave | [1], |
Blue LEDs | [1], |
Bold script for index words | [1], |
Bose-Einstein distribution | [1], |
Bound exciton | [1], |
Boundary conditions; for free electron gas | [1], |
Bragg condition | [1], |
Bravais lattices | [1], |
Brillouin construction | [1], |
Brillouin zones | [1], |
Buffer layer | [1], |
Built-in potential | [1], |
Bulk microdefects | [1], |
Burgers vector | [1], [2], |
Burrus type LED | [1], |
C, | |
Capacitance of a SCR | [1], |
Capacitance of SCR | [1], [2], |
Capture cross section | [1], |
Carborundum | [1], |
Carrier statistics | [1], |
Casting of Silicon | [1], |
Cathodoluminescence | [1], |
CELLO technique | [1], |
Chemical force | [1], |
Chemical potential | [1], |
Chemoluminescence | [1], |
Cis configuration | [1], |
Collector | [1], |
Columns in module matirx | [1], |
Compliant substrates | [1], |
Conducting Polymers | [1], |
Conductivity | [1], [2], [3], |
Conjugated polymer | [1], [2], |
Conservation of crystal momentum | [1], |
Conservation of particles/charge | [1], |
Constant Potential | [1], |
Contamination | [1], |
Continuity assumption | [1], |
Continuity equation | [1], [2], |
Crystal momentum | [1], [2], [3], |
Crystal momentum conservation | [1], |
Crystal originated particles or pits | [1], |
Current density | [1], |
Current efficiency of light generation | [1], |
Current-voltage characteristics of a p-n-junction | [1], |
D, | |
Dangling bonds | [1], |
de Broglie equation | [1], |
Debye lenght | [1], |
Debye length | [1], [2], |
Debye temperature | [1], |
Deep levels | [1], |
Deep states | [1], |
Defect etches | [1], |
Density of electrons; basic formula | [1], |
Density of States | [1], [2], |
Depletion | [1], [2], |
Device size considerations | [1], |
Device speed | [1], |
Diamond; as heat sink | [1], |
Dictionary English - German | [1], |
Dielectric relaxation time | [1], [2], |
Differential gain factor | [1], |
Diffusion capacitance | [1], [2], |
Diffusion coefficent | [1], |
Diffusion coefficients of carriers | [1], [2], |
Diffusion current in p-n junction | [1], |
Diffusion current; electrical | [1], |
Diffusion length | [1], [2], [3], |
Diffusion profile | [1], |
Diode equation | [1], [2], |
Diode type heterojunction | [1], |
Direct dissolution | [1], |
Direct semiconductors | [1], |
Directional solidification | [1], |
Discontinuity; in the band diagram | [1], |
Dislocations in Si | [1], |
Dispersion function | [1], |
Distribution function | [1], |
Donors | [1], |
Dopant activation | [1], |
Doping | [1], [2], |
Doping, of SiC | [1], |
Dose | [1], |
Double hetero junction | [1], |
Drift current in a p-n junction | [1], |
Drift velocity | [1], [2], [3], |
Drift velocity; of fly swarm | [1], |
Driftgeschwindigkeit | [1], |
Ductility of Si; at high temperatures | [1], |
Dynamic carrier equilibrium | [1], |
Dynamic equilibrium | [1], |
E, | |
Ecercises | [1], |
Edge emitting LED | [1], [2], |
Effctive mass | [1], |
Effective density of states | [1], [2], |
EFG solar Si | [1], |
Einstein | [1], |
Einstein coefficient for stimulated absorption | [1], [2], |
Einstein relation | [1], [2], |
Einstein-Smoluchowski relations | [1], |
Elastic scatteirng | [1], |
Electrical diffusion current | [1], |
Electroluminescence | [1], |
Electrons in semiconductors | [1], |
Emission probability for electrons | [1], [2], |
Emitter of a bipolar transistor | [1], |
Emitter-push effect | [1], |
Energy gap | [1], |
Energy splitting; at the BZ | [1], |
Ensemble average | [1], |
Enthalpy | [1], |
Entropy | [1], |
Entropy of recombination/generation | [1], |
Equilibrium condition | [1], |
Equipartition theorem | [1], |
Equivalent circuit diagram | [1], |
Ergodic hypothesis | [1], |
Errorfunction | [1], |
Esaki | [1], |
Etching | [1], |
Ewald construction | [1], |
Exciton | [1], [2], |
Excitons | [1], |
External efficiency | [1], |
External efficiency of light generation | [1], |
F, | |
Fabry-Perot resonator | [1], |
Feldstärke; statt Spannung | [1], |
Fermi energy | [1], |
Fermis golden rule | [1], |
Ficks laws | [1], [2], |
Field current in a p-n junction | [1], |
Field strength | [1], |
First Laser condition | [1], |
Flat band | [1], |
Fliegenschwarmanalogie | [1], |
Fluorescence | [1], |
Format Hyperscript | [1], |
Forward current in a p-n junction | [1], |
Fourier transform of lattice | [1], [2], |
Free electron gas | [1], |
free electron gas model | [1], [2], |
Free energy | [1], |
Free enthalpy | [1], |
Frequency range of LEDs | [1], |
Fresnel laws | [1], |
Fundamental absorption | [1], [2], |
G, | |
Gain coefficient | [1], [2], |
Gain driven Laser | [1], |
Gauss | [1], |
Gauss law | [1], |
Generation current in a p-n junction | [1], |
Generation currents from the SCR | [1], [2], [3], |
Generation life time | [1], [2], |
Generation rate | [1], [2], |
Generation rate in direct semiconductors | [1], |
Generation rate; by photons | [1], |
Gibbs energy | [1], |
Gold; in Si | [1], |
Grain boundaries in Si | [1], |
Group velocity | [1], [2], [3], |
H, | |
Hamilton operator | [1], |
Heterojunctions | [1], |
Heterostructures | [1], |
High injection | [1], |
High injection approximation | [1], |
High injection case | [1], |
Holes in semiconductors | [1], |
Hydrogen passivation | [1], |
Hyperscript; format of | [1], |
I, | |
Illustration modules | [1], |
Imref | [1], |
Index driven Laser | [1], |
Index grading | [1], |
Index of abbreviations | [1], |
Index of key words | [1], |
Index of names | [1], |
Index of refraction; of semiconductors | [1], |
Indirect semiconductors | [1], |
Injection luminescence | [1], |
Injection ratio | [1], |
Intensity of light | [1], |
Interface charge | [1], |
Interface chemistry | [1], |
Interface energy | [1], |
Interface states | [1], [2], |
Interface structure | [1], |
Interface, electronic properties | [1], |
Interface, structural properties | [1], |
Internal energy | [1], |
Intrinsic conductivity of Silicon | [1], |
Intrinsic loss coefficient | [1], |
Intrinsic Semiconductors | [1], [2], |
Inversion | [1], [2], [3], |
Ion implantation | [1], |
Ionized dopants | [1], |
Isoelectronic doping | [1], |
Isotropic dissolution | [1], |
Isotype heterojunction | [1], |
Isotype junctions | [1], |
J, | |
Junctions; simple | [1], |
K, | |
Key word index | [1], |
Kick-out diffusion mechanism | [1], |
L, | |
Large signal response. | [1], |
Laser | [1], [2], |
Laser condition | [1], |
Lattice misfit | [1], |
Life time | [1], [2], [3], |
Life time; formula for the | [1], |
Light bulbs; replacement | [1], |
Local equilibrium | [1], |
Localized excitons | [1], |
Localized light scattering defect | [1], [2], |
Longitudional modes | [1], |
Luminescence | [1], |
M, | |
Majority carriers | [1], |
Maser | [1], |
Mass action law | [1], [2], [3], |
Matrix of modules | [1], |
Maxwell equations | [1], |
Mean free path | [1], |
Mean scattering time | [1], |
Melting point anomaly of Si | [1], |
Metallurgical junction | [1], |
metamaterial | [1], |
Micro electronic and mechanical systems | [1], |
Micro systems | [1], |
Micropipes; in SiC | [1], |
Miller indices | [1], |
Minority carrier life itme | [1], [2], [3], |
Minority carriers | [1], |
Misfit dislocations | [1], |
Mobility | [1], [2], [3], |
Mobility of carriers | [1], |
Mobility of electrons; in Si | [1], |
Modes of Lasers | [1], |
Modulation doping | [1], |
Module matrix | [1], |
Modules of solar cells | [1], |
Moissanite (= natural SiC) | [1], |
Monomode Laser | [1], |
Motorola | [1], [2], |
Multi quantum well | [1], |
Multiple quantum well | [1], |
N, | |
n-type semiconductor | [1], [2], |
Names: Indiex of | [1], |
Net generation of carriers | [1], |
Newtons Laws | [1], |
O, | |
Ohmic contacts | [1], |
Ohmic resistor | [1], |
Ohms law | [1], |
Optica lefficiency of light generation | [1], |
Optical properties, of SiC | [1], |
Optoelectronics defined | [1], |
Optoelectronics; and SiC | [1], |
P, | |
p-n-junction | [1], |
Parts per quatrillion | [1], |
Passivation | [1], |
Passivation | [1], |
Pauli exclusion principle | [1], |
Peierls | [1], [2], |
Peierls instability | [1], [2], [3], |
Peierls instability and superconductivity | [1], [2], |
Peierls transition | [1], |
Perfect semiconductors | [1], |
Periodic boundary conditions; for the free electron gas | [1], |
Phase noise; in Lasers | [1], |
Phase space | [1], |
Phase velocity | [1], [2], |
Phonons | [1], [2], |
Phonons; and interaction with electrons | [1], |
Phosphorescence | [1], |
Photoluminescence | [1], |
Photonic crystals | [1], |
Physical vapor transport; for SiC crystal growth | [1], |
PIN diode | [1], |
Piss; for etching Si | [1], |
Plasma | [1], |
Point defects in Si | [1], |
Poisson equation | [1], [2], |
Polymorphism | [1], |
Polytypes; of SiC | [1], |
Potential; for free electron gas | [1], |
Proecipitates in Si | [1], |
Pumping a Laser | [1], |
Pure diffusion currents | [1], |
Pythagoras | [1], |
Q, | |
Quantum efficiency of light generation | [1], [2], |
Quantum numbers; in the free electron gas model | [1], |
Quantum state | [1], |
Quantum theory | [1], |
Quantum well | [1], |
Quantum wells | [1], |
Quasi Fermi energies | [1], |
Quasi Fermi energy | [1], |
Quasi wave vector | [1], |
Quasi-particles | [1], |
R, | |
Radiation resistance; of SiC devices | [1], |
Radiative channels | [1], |
Ramsdell notation; for SiC polytypes | [1], |
Rapid thermal processing | [1], [2], |
Reciprocal lattice | [1], [2], |
Recombination channels | [1], [2], |
Recombination coefficient | [1], |
Recombination current | [1], |
Recombination currrent in a p-n junction | [1], |
Recombination life time | [1], |
Recombination rate | [1], [2], |
Recombination rate; in non-equilibrium | [1], |
Recombination volume | [1], |
Recombination zone | [1], [2], [3], |
Reduced band diagrams | [1], |
Refractive index of semiconductors | [1], |
Replacing light bulbs | [1], |
Resistivity | [1], |
Reverse current in a p-n junction | [1], |
reverse current; in diodes | [1], |
Rows in module matrix | [1], |
Ruby | [1], |
S, | |
Saturated electron drift velocity | [1], |
Scaling factor | [1], |
Scaling laws | [1], |
Scattering | [1], |
Scattering cross section | [1], [2], |
Scattering mechanisms | [1], |
Schroedinger equation | [1], |
Schrödinger equation | [1], |
Second Laser condition | [1], |
Secondary mass spectroscopy | [1], |
Selective etching | [1], |
Series resistance | [1], |
Shallow levels | [1], |
Shockley-Read-Hall recombination | [1], [2], |
Shunt resistance | [1], |
SiC | [1], |
SiC, doping of | [1], |
SiC, electronic properties | [1], |
SiC; optical properties | [1], |
Single quantum well | [1], [2], |
Sintering of Si | [1], |
Small diodes | [1], |
Small signal response | [1], |
Smoluchowski | [1], |
Snellius law | [1], |
Solar cell | [1], |
Solar cell market | [1], |
Solar cells | [1], [2], |
Solar grade Si | [1], |
Solubility limit | [1], |
Solubility; dopants in Si | [1], |
Space charge layer | [1], |
Space charge region | [1], |
Specific conductance | [1], |
Specific heat of Si | [1], |
Specific resistance | [1], |
Spherical solar cells from TI | [1], |
Spin | [1], |
Spin; of the electron | [1], [2], |
Spintronic | [1], |
Spontaneous emission of a photon | [1], [2], |
State; Quantum state | [1], |
Steady state (and non-equilibrium) | [1], |
Stimulated Emission | [1], |
Stimulated emission of a photon | [1], |
Stored charge | [1], |
Stromdichte; statt Strom | [1], |
Strong inversion | [1], |
Superradiant LEDs | [1], |
Surface concentration; calculation from volume concentration | [1], |
Surface density | [1], |
Surface emitting LEDs | [1], |
Surface generation velocity | [1], |
Surface recombination velocity | [1], |
Surface states | [1], |
Switching behavior (of a diode) | [1], |
Symmetry breaking; in polymer conductivity | [1], |
T, | |
Table of Contents | [1], |
Thermal conductivity of Si | [1], |
Thermal expansion coefficient of Si | [1], |
Thermalization | [1], |
Thermodynamic potentials | [1], |
Thin film solar cells | [1], |
Three level system | [1], |
Threshold density | [1], |
Threshold value for lasing ; gain coefficient | [1], [2], |
top | [1], |
Total energy (in Schroedinger equation) | [1], |
Trans configuration# | [1], |
Transients (in current) | [1], |
Transients (in voltage) | [1], |
Transit time | [1], |
Transition rates | [1], |
Transparency density | [1], |
Transverse modes | [1], |
Tunnel diodes | [1], |
U, | |
Ulterviolet catastrophe | [1], |
Uncertainty relaltion; for Lasers | [1], |
V, | |
Varactors | [1], |
von Karman | [1], |
W, | |
Wacker Siltronic | [1], [2], |
Warpage | [1], |
Wave function | [1], |
Wave length of free electron | [1], |
Wave vector | [1], [2], [3], |
Weak inversion | [1], |
Width of base region; parameter or speed | [1], |
Wigner-Seitz cells | [1], |
Wire saws | [1], |
Workfunction | [1], |
Working point | [1], |
X,Y, | |
Yield stress | [1], |
© H. Föll (Semiconductors - Script)