1.
Bragg's Law and Diffraction, Lukin
2.
Classification of Solids, Stephen Jenkins
3.
Crystallography, David Richards
4.
The
structure of crystals, Sauls
5.
Properties of GaAs,
SUNY at Buffalo
6.
Oscillating 3D Crystal, Kiselev
________________________________________________
3D Bravais Lattices with cubic
symmetry - All of them require a VRML viewer, for example CosmoPlayer or any other player, you can find in The Web3D Repository
7.
Cubic symmetry,
Demidov and Drozdov
8.
"Planes" of mirror
symmetry, Demidov and Drozdov
9.
Simple Cubic unit
cell, 5x5x5, 7x7x7
atoms cells – Wigner-Seitz cell is cube,
Demidov and Drozdov
10.
Body Centered Cubic
unit cell, 5x5x5 and 7x7x7
lattices - Wigner-Seitz cell is truncated octahedron,
Demidov and Drozdov
11.
Face Centered Cubic
unit cell, 5x5x5 and 7x7x7 lattices-
Wigner-Seitz cell is rhombic dodecahedron,
Demidov and Drozdov
Real crystal
lattices - All of them require a VRML viewer
12.
NaCl unit
cell, and 5x5x5 and 7x7x7
cells, Demidov and Drozdov
13.
GaAs unit cell 5x5x5, 7x7x7,
Demidov and Drozdov
14.
Si, Ge
unit cell 5x5x5, 7x7x7,
Demidov and Drozdov
15.
SrTiO3
unit cell 5x5x5,
Demidov and Drozdov
16.
YBa2Cu3O7
unit cell 7x5x5,
Demidov and Drozdov
17.
Superconducting atomic Cu-O2 planes,
Demidov and Drozdov
Crystallographic
planes - All of them require a VRML viewer
18.
NaCl
crystall along (100), (010) and (001) , Demidov and Drozdov
19.
GaAs
crystall along (110) plane, Demidov and Drozdov
Close packed
lattices
20.
Face Centered Cubic unit
cell, Demidov and Drozdov
21.
Hexagonal
lattice, Demidov and Drozdov
23.
(100) Si surface
reconstruction. The real crystal has broken (unoccupied) bonds on its
surface which may lead to the surface reconstruction. (100) Si surface
before reconstruction (rotated 4x4x2 and 6x6x2
lattices). White and blue balls show two FCC sublattices of Si. 2x1 reconstruction of
(100) Si surface (RGBW colored and 6x6x2 lattices).
24.
Energy Band Creator,
Kansas State
University
25.
Diffusion, drift and recombination of excess minority carriers in a
semiconductor, SUNY at Buffalo
26.
Electron wave function propagating through a periodic potential, Eurotechnology
27.
Rational Approximant to an Icosahedral Quasicrystal, Denton
28.
Quasicrystals, Laboratory of Atomic and
Solid State Physics
29.
Polymers, Laboratory of Atomic and Solid State
Physics
30.
Scanning Tunneling Microscopy
at Sljus, Lund University
31.
Quantum Tunneling of Atoms, Laboratory of Atomic and Solid State Physics
32.
Manipulating Atoms with an STM, Laboratory of Atomic and Solid State Physics
33.
Atomic Tunneling from an
STM/AFM tip: Dissipative Quantum effects from phonons, Laboratory of Atomic and Solid State Physics
34.
LEDs, Kansas State
University
35.
Formation of a PN Junction Diode and its Band Diagram, SUNY at Buffalo
36.
Indirect recombination via an energy state in the band gap, SUNY at Buffalo
37.
Energy Band Diagram and E-k Diagram, AlGaAs, SUNY at Buffalo
38.
SiGe, SUNY at Buffalo
39.
Fermi-Dirac function,
Belloni and Christian
40.
Fermi Function and Localized Energy States, SUNY at Buffalo
41.
Density of
occupied states n0(e),
Belloni and Christian
42.
Carrier Concentration vs. Fermi Level, SUNY at Buffalo
43.
Dynamic variation of
Fermi-Dirac distribution with temperature T,
Boutiche
44.
Carrier Concentration vs. Fermi Level and the Density of States, SUNY at Buffalo
45.
Dynamic variation of
Fermi-Dirac distribution with temperature T,
Boutiche
46.
Moderate-doping vs. Heavy-doping, SUNY at Buffalo
47.
PN junction diode and its band diagram: simpler version, SUNY at Buffalo
48.
PN junction diode and its band diagram: improved version, SUNY at Buffalo
49.
PN junction diode, space charge profile and electric field, SUNY at Buffalo
50.
PN junction diode: approaching
equilibrium, SUNY at Buffalo
51.
Biased PN Junction, SUNY at Buffalo
52.
Space charge and electric field in biased PN junction, SUNY at Buffalo
53.
PN junction diode: C-V and I-V, SUNY at Buffalo
54.
PN junction and Schottky diodes: I-V, SUNY at Buffalo
55.
Short-base vs. long-base BJT, SUNY at Buffalo
56.
Charge Flow into/out-of the Base region, SUNY at Buffalo
57.
BJT Dynamic Operation (Switching), SUNY at Buffalo
58.
(BJT Dynamic Operation
(Switching) (original version),
SUNY at Buffalo
59.
Small-signal equivalent circuit model (hybrid-PI model), SUNY at Buffalo
60.
General (large-signal) equivalent circuit model (Ebers-Moll model), SUNY at Buffalo
61.
Fermi Dirac-vs.-Maxwell
Boltzman, SUNY at Buffalo
Device
Fabrication
62.
PN Junction Diode, SUNY at Buffalo
63.
n-channel MOSFET, SUNY at Buffalo
64.
BJT-FET pair on the same chip, SUNY at Buffalo
65.
The Semiconductor Manufacturing
Process, Fullman Kinetics
66.
Summary Three applets on enhancement MOS, SUNY at Buffalo
67.
MOSFET, SUNY at Buffalo
68.
Channel ON-OFF behaviors, SUNY at Buffalo
69.
Channel ON-OFF by Vgs, Pinchoff-Continuous by Vgd, SUNY at Buffalo
70.
Device cross-section and Output characteristics (Id vs. Vgs,
Vds), SUNY at Buffalo
71.
MOS Charge-Energy Band, SUNY at Buffalo
72.
MOS Charge-Field-Potential with bias,
SUNY at Buffalo
73.
MOS Charge-Energy Band, SUNY at Buffalo
74.
MOS Charge-Field-Potential equilibrium
state, SUNY at Buffalo
75. &nb