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,
| 1st law of thermodynamics | [1], [2], |
| A, | |
| Activation energy | [1], |
| Activity | [1], [2], |
| Africa (and steel) | [1], |
| Ageing by dislocation climb | [1], |
| Alchemy | [1], |
| Anion interstital; neglecting the | [1], |
| Anion vacancy | [1], |
| Anions; definition | [1], |
| Annealing experiments | [1], |
| Annihilation of point defects | [1], |
| Anodic dissolution | [1], |
| Anodic etching | [1], |
| Anti particles | [1], |
| Anti Schottky defect | [1], |
| Anti site defects | [1], |
| Anti-coherency dislocations | [1], |
| Anti-Frenkel disorder | [1], |
| Antisite defects | [1], |
| Archeometallurgy | [1], |
| Arrangement; in combinatorics | [1], |
| Arrhenius plot | [1], [2], [3], |
| Artifacts in defect etching | [1], |
| Association entropy; of a vacany - foreign atom complex | [1], |
| Atomic Jump Measurement; for diffusion | [1], |
| Atomic size defects | [1], |
| Austenite | [1], |
| Avogadros constant | [1], |
| B, | |
| b-lattice | [1], |
| Backbone 1 | [1], |
| Backbone 2 | [1], |
| Balmung | [1], |
| Bandgap | [1], |
| Base of a crystal | [1], |
| Beatles | [1], |
| Beer | [1], |
| Berthollet | [1], |
| Bessemer converter | [1], |
| Bessemer process | [1], |
| Bessemer prozess | [1], |
| Bessemer steel | [1], |
| Binding energy | [1], |
| Binding enthalpy; of a vacancy - foreign atom complex | [1], |
| Binomial coefficient | [1], [2], [3], |
| Black art | [1], |
| Bloom | [1], [2], [3], |
| Bollmann | [1], |
| Bollmann theory | [1], |
| Boltzmann's constant | [1], |
| Boltzmanns entropy equation | [1], [2], |
| Book: Haasen | [1], |
| Books: Bohm | [1], |
| Books: Bollmann | [1], |
| Books: Hayes and Stoneham | [1], [2], |
| Books: Hirth and Lothe | [1], |
| Books: Kittel | [1], |
| Books: R.P. Baumann: Modrn thermodynamics with Statistical Mechanics | [1], |
| Bragg-condition | [1], |
| Bravais lattices | [1], |
| Bright field | [1], |
| Bronce | [1], |
| Bronce age | [1], |
| Brouwer diagram | [1], |
| Building element notation | [1], |
| Building elements | [1], |
| Bulk micro defects in Si | [1], |
| Bulk modulus | [1], |
| Burgers circuit | [1], |
| Burgers vector | [1], [2], |
| Burgers vector analysis | [1], |
| C, | |
| Cast iron | [1], [2], [3], [4], |
| Casting | [1], |
| Cation interstitial | [1], [2], |
| Cation vacancy | [1], [2], [3], |
| Cations; definition | [1], |
| Cementite | [1], |
| Charcoal | [1], |
| Charge equilibrium | [1], |
| Charge neutrality condition | [1], [2], |
| Charged vacancies | [1], |
| Chemical equilibrium | [1], [2], [3], |
| Chemical kinetics | [1], |
| Chemical potential | [1], [2], [3], [4], [5], |
| Chemical potentials | [1], |
| China (and steel) | [1], |
| China and steel | [1], |
| Chip | [1], |
| Chips | [1], |
| Climb (of dislocations) | [1], |
| Climb of dislocations | [1], |
| Climb; of dislocations | [1], [2], |
| Coherency dislocations | [1], |
| Coherent boundaries | [1], |
| Coherent interface | [1], |
| Coherent ledges | [1], |
| Coherent steps | [1], |
| Coincidence site lattice | [1], [2], |
| Coke | [1], |
| Colada | [1], |
| Combinations; in combinatorics | [1], |
| Combinations; math of | [1], |
| Combinatorics | [1], |
| Complete pattern shift lattice | [1], |
| Complexes | [1], |
| Compliant substrate | [1], [2], |
| Compressive strain; at a dislocation | [1], |
| Concentration profile measurements | [1], |
| Conservative movement of dislocations | [1], |
| Continuity equation | [1], |
| Contrast analysis | [1], |
| Contrast in TEM | [1], |
| Contrast transfer function. | [1], |
| Copper age | [1], |
| Copper smelting | [1], |
| Correlation effects; in diffusion | [1], |
| Correlation factor | [1], |
| Covalent crystals; and multi vacancies | [1], |
| Critical shear stress | [1], [2], |
| Critical thickness for epitaxial layers | [1], |
| Crowdion | [1], |
| Crystal | [1], |
| Crystal growth and ponit defects | [1], |
| CsCl structure | [1], |
| Cubic body centered lattice | [1], |
| Cubic face centered lattice | [1], |
| Cubic lattices | [1], |
| Cubic primitive lattice | [1], |
| Cylinder coordinates for dislocations | [1], |
| D, | |
| D-defects in Si | [1], |
| Damascene technique | [1], |
| Damascene techniques | [1], [2], |
| Damascus | [1], |
| Damascus steel | [1], |
| Dark field | [1], |
| Dash etch | [1], |
| Debris | [1], |
| Debye | [1], |
| Debye length | [1], [2], [3], |
| Debye temperature | [1], |
| Deep level transient spectroscopy | [1], |
| Defect decoration | [1], |
| Defect engineering | [1], |
| Defect spinel | [1], |
| Defects and steel | [1], |
| Definition of partial dislocations | [1], |
| Denuded zones | [1], |
| Designer defects | [1], |
| Determinant of a matrix | [1], |
| Diamond structure | [1], |
| Diamonds | [1], |
| Differential thermal expansion | [1], |
| Diffraction condition in TEM | [1], |
| Diffraction pattern | [1], |
| Diffraction vector | [1], |
| Diffusion = random walk | [1], |
| Diffusion and point defects | [1], |
| Diffusion in Si | [1], |
| Diffusion length | [1], [2], [3], |
| Diffusion profile | [1], |
| Direct diffusion | [1], |
| direct diffusion mechanism | [1], |
| Disclination | [1], |
| Disclinations | [1], |
| Discovery or invention? | [1], |
| Dislocation climb | [1], |
| Dislocation core | [1], [2], |
| Dislocation core radius | [1], |
| Dislocation debris | [1], |
| Dislocation generation | [1], |
| Dislocation knot | [1], |
| Dislocation line | [1], |
| Dislocation loop | [1], |
| Dislocations | [1], |
| Dislocations in bcc lattices | [1], |
| Dislocations in the diamond lattice | [1], |
| Dislocations movement, and plastic deformation | [1], |
| Displacement field | [1], [2], |
| dissociative mechanism | [1], |
| Distortion; from dislocations | [1], |
| Divacancy | [1], |
| Doping with vacancies | [1], |
| Doping; and defects | [1], |
| DSC lattice | [1], [2], |
| DSC-lattice | [1], [2], |
| Dumbbell | [1], |
| E, | |
| Eckesachs | [1], |
| Eisenbahn | [1], |
| Elastic field of a dislocation | [1], |
| Elasticity theory; basics for dislocations | [1], |
| Electro beam induced current microscopy | [1], |
| Electrochemical Equilibrium | [1], |
| Electron beam induced current | [1], |
| Electron spin resonance | [1], |
| Electroneutrality | [1], |
| Electronically active defects | [1], |
| Elementary cell | [1], |
| Energy levels of point defects in a band gap | [1], |
| Enthalpy | [1], [2], |
| Entropy | [1], [2], [3], [4], [5], [6], |
| Entropy barrier | [1], |
| Entropy of association | [1], |
| Entropy of configuration | [1], |
| Entropy of mixing | [1], |
| Equilibrium concentration of vacancy - impurity atom complexes | [1], |
| Equilibrium condition and chem. potential | [1], |
| Equilibrium distance; for partial dislocations | [1], |
| Equivalent points | [1], |
| Eskimos (and steel) | [1], |
| Etch grooves | [1], |
| Etch pits | [1], |
| Euler relation | [1], |
| Europe and steel | [1], |
| Ewald sphere | [1], |
| Excalibur | [1], |
| Excess charge | [1], |
| Excitation error | [1], |
| Extended interstitial | [1], |
| Extended point defect | [1], |
| Extinction length | [1], |
| Extrinsic grain boundary dislocations | [1], |
| Extrinsic interstitials | [1], |
| Extrinsic point defects | [1], [2], [3], |
| Extrinsic stacking fault | [1], |
| F, | |
| Face centered cubic lattice | [1], |
| facets in grain boundaries | [1], |
| Facetting | [1], |
| Facetting (of grain boundaries) | [1], |
| Factorials | [1], |
| Famous swords | [1], |
| Fatigue | [1], |
| Fermi | [1], |
| Fermi energy | [1], [2], [3], |
| Fermi energy; and point defects | [1], |
| Ferrite | [1], |
| Ficks 1. law | [1], |
| Ficks 2. law | [1], |
| Field ion microscopy | [1], |
| Fluorite structure | [1], |
| Flux-line lattice | [1], |
| Force on a dislocation | [1], |
| Forces on glide plane | [1], |
| Forge welding | [1], |
| Forging | [1], |
| Formation energy of a double kink | [1], |
| Formation enthalpies for Schottky defects | [1], |
| Formation enthalpy | [1], |
| Formation entropy | [1], |
| formations enthalpies for Frenkel defects | [1], |
| Fourier transform | [1], |
| Fourier transform IR spectroscopy | [1], [2], |
| Frank dislocation | [1], |
| Frank-Read mechanism | [1], |
| frank-turnbull mechanism | [1], |
| Franks formula | [1], [2], |
| Free energy | [1], [2], [3], [4], [5], |
| Free enthalpy | [1], [2], [3], [4], [5], [6], [7], |
| Frenkel | [1], |
| Frenkel defects | [1], [2], |
| Frenkel defects; formation enthalpies | [1], [2], |
| Frenkel disorder | [1], [2], |
| Frenkel pair | [1], |
| Frozen-in defects | [1], |
| Fugacity | [1], |
| G, | |
| Garnet structure | [1], |
| Generalized coordinates | [1], |
| Generalized force | [1], |
| Generalized forces | [1], |
| Generation of dislocations | [1], |
| Generation of point defects | [1], |
| Geometric kinks | [1], |
| Geometry factor for diffusion | [1], |
| Geometry factor; of diffusion jumps | [1], |
| Gibbs energy | [1], [2], [3], [4], |
| Glide (of dislocations) | [1], |
| Glide cylinder | [1], |
| Glide plane | [1], [2], |
| Glide set dislocations | [1], |
| Glide system | [1], |
| Global equilibrium | [1], |
| Grain boundaries | [1], |
| Grain boundary dislocations | [1], |
| Grain boundary energy | [1], |
| Grain boundary; source / sink point defects | [1], |
| Greenland (and steel) | [1], |
| H, | |
| Hardening mechanism | [1], |
| Harmonic oscillator | [1], |
| Haya (afrikanisches Volk) | [1], |
| Haze | [1], [2], [3], |
| Heat | [1], [2], |
| Heat of formation | [1], [2], |
| Helmholtz energy | [1], [2], [3], |
| Hephaistos | [1], |
| Hethites (and iron) | [1], |
| Hexagonal close packed lattice | [1], [2], |
| Hexagonal lattice | [1], |
| Hittites and steel | [1], [2], |
| Holes in semiconductors | [1], |
| Hooke´s law | [1], |
| Hypereutectoid steel | [1], |
| Hyperscript | [1], |
| Hypo-eutectoid steel | [1], |
| I, | |
| Ideal solids | [1], |
| Identy matrix | [1], |
| Imaging mode | [1], |
| Impurity atoms | [1], [2], |
| Independent reaction partners | [1], |
| India (and steel) | [1], |
| indirect interstitial mechanism | [1], |
| Infra red | [1], |
| Infra red spectroscopy | [1], |
| Infrared light microscopy | [1], |
| Ingersheim; sword from | [1], |
| Integrated circuits | [1], |
| Internal energy | [1], [2], |
| Internal friction | [1], |
| Internal oxidation | [1], |
| Internal stress | [1], |
| Interstitials | [1], |
| Intrinsic gettering | [1], |
| Intrinsic interstitials | [1], |
| Intrinsic point defects | [1], [2], [3], |
| Intrinsic stacking fault | [1], |
| Invention of the Dislocation | [1], |
| Invention or discovery? | [1], |
| Inverse matrix | [1], |
| Ionic conductors | [1], |
| Ionic crystals | [1], [2], |
| Ionic crystals; and multi vacancies | [1], |
| Ionics | [1], [2], |
| Iron bloom | [1], |
| Iron precipitates in Si | [1], |
| Iron; the making of | [1], |
| Irradiation and point defects | [1], |
| J, | |
| Japan and steel | [1], |
| Japanese damascene technique | [1], |
| Jogs | [1], [2], |
| Johnson complex | [1], |
| K, | |
| Kelts (and steel) | [1], |
| kick-out mechanism | [1], |
| Kikuchi lines | [1], |
| King Tut | [1], |
| Kinks | [1], |
| Kinks; thermal equilibrium | [1], |
| Knot (of dislocations) | [1], |
| Kröger-Vink and mass action law | [1], |
| Kröger-Vink diagram | [1], |
| Kröger-Vink notation | [1], [2], |
| L, | |
| Lamé constants | [1], |
| Lattice | [1], [2], |
| Legendre transformation | [1], |
| Lifetime | [1], |
| Light beam induced current | [1], |
| Light microsocope | [1], |
| Line energy | [1], [2], [3], |
| Line tension | [1], |
| Line vector | [1], |
| Local equilibrium | [1], |
| Lomer-Cotrell dislocations | [1], [2], |
| M, | |
| Macrostate | [1], [2], [3], |
| Magical swords | [1], |
| Malachite | [1], |
| Martensite | [1], |
| Mass action law | [1], [2], [3], [4], |
| Mass action law and Kröger-Vink | [1], |
| Matrix | [1], |
| Matrix algebra | [1], [2], |
| Mechanisms for dislocation generation | [1], |
| Metals; and multi acancies | [1], |
| Metaphysics | [1], |
| Micro twin | [1], |
| Micro twins | [1], |
| Microelectronics, and defects | [1], |
| Microelectronics; and defects | [1], |
| Microstate | [1], [2], |
| Migration energy | [1], |
| Migration entropy | [1], |
| Mimung | [1], |
| Minimal strain (in O-lattice theory) | [1], |
| Minority carrier diffusion length | [1], |
| Misfit dislocations | [1], |
| Mixed defects | [1], |
| Mixed dislocation | [1], |
| Mixed dislocations; strain field of a | [1], |
| Mohammeds latter | [1], |
| Moirée pattern | [1], [2], |
| Moirée patterns | [1], |
| Mol; definition | [1], |
| Mole fraction | [1], |
| Monoclinic lattice | [1], |
| Multi vacancies | [1], |
| Mößbauer effect | [1], |
| N, | |
| NaCl structure | [1], |
| Nagelring | [1], |
| Neutron transmutation doping | [1], |
| New Schottky notation | [1], |
| Nibelungen saga | [1], |
| Nitridation and point defects | [1], |
| Nobel prize | [1], |
| Non conservative dislocation movement | [1], |
| Non-equilibrium for point defects | [1], |
| Non-ideal gases | [1], |
| Normal strain | [1], |
| Notung | [1], |
| Nuclear magnetic resonance | [1], |
| O, | |
| O-lattice theory | [1], [2], |
| O-lines | [1], |
| O-points | [1], |
| O2-lattice | [1], |
| Octahedral sites | [1], |
| Old Schottky notation | [1], |
| One dimensional defects | [1], |
| One-dimensional defect | [1], |
| Optoelectronics; and defects | [1], |
| Optoelectronis, and defects | [1], |
| Orthorhombic lattice | [1], |
| Oversaturation | [1], |
| Oxidation and point defects | [1], |
| Oxidation induced stacking fault | [1], [2], |
| Oxidation inducued stacking faults | [1], |
| P, | |
| Pairs of point defects | [1], |
| Partial dislocations | [1], [2], [3], |
| Partial pressure | [1], |
| Particle flux | [1], |
| Partition function | [1], |
| Pattern element | [1], |
| Pattern elements | [1], |
| Pattern welding | [1], [2], |
| Pauli principle | [1], |
| Peary; R.; admiral and thief | [1], |
| Peierls | [1], |
| Peierls potential | [1], |
| Perlite | [1], |
| Perovskite structure | [1], |
| Perpetuum mobile | [1], |
| Phase boundary | [1], |
| Phase boundary dislocations | [1], |
| Phase diagrams | [1], |
| Phase space | [1], |
| Philosophers | [1], |
| Plasic deformation and point defects | [1], |
| Plastic deformation; and dislocation movement | [1], |
| Point defects | [1], [2], |
| Point defects and sensors | [1], |
| Poisson equation | [1], |
| Poisson´s ratio | [1], |
| Polarization microscopy | [1], |
| Poly crystal | [1], |
| Positron | [1], |
| Positron annihilation | [1], |
| Precipitates | [1], |
| Precipitation and point defects | [1], |
| Preferential etching | [1], |
| Pressure and stress | [1], |
| Primitive unit cell | [1], |
| Prismatic punching | [1], |
| Probability of a macrostate | [1], [2], |
| Pure steps | [1], |
| Q, | |
| Quasicrystals | [1], |
| Quenching | [1], [2], |
| Quenching experiments | [1], |
| Quenching; and vacancy clusters | [1], |
| Qxygen sensor | [1], |
| R, | |
| Raction equation; for point defects | [1], |
| Random walk | [1], [2], |
| Rank of a matrix | [1], |
| Rank of the deformation matrix | [1], |
| Reaction constant | [1], |
| Reaction coordinate | [1], |
| Reactive Interfaces and point defecs | [1], |
| Reduced O-lattice | [1], |
| Residual resistivity | [1], |
| Resolved shear stress | [1], |
| Rhombohedral lattice | [1], |
| Rigid body translation | [1], |
| Roland saga | [1], |
| Rutherford backscattering | [1], |
| S, | |
| S-curve; for positron annihiliation | [1], |
| Scanning tunneling microscope | [1], |
| Schleswig | [1], |
| Schleswig-Holstein | [1], |
| Schmalzried | [1], |
| Schottky defects | [1], [2], |
| Schottky defects; formation enthalpies | [1], [2], |
| Schottky disorder | [1], |
| Schottky notation | [1], |
| Schottly notation | [1], |
| Scientists; vs. philosophers | [1], |
| Screw dislocation | [1], |
| Screw dislocations; name | [1], |
| Secco etch | [1], [2], |
| Second order O-lattice | [1], |
| Secondary grain boundary defects | [1], |
| Secondary mass spectroscopy | [1], |
| Seiter etch | [1], |
| Seitz | [1], |
| Self diffusion coefficient | [1], |
| Self-interstitial | [1], |
| Self-interstitials | [1], [2], |
| Self-interstitials; in Si | [1], |
| Semi-coherent interface | [1], |
| Sensor; and mass action law | [1], |
| Sensors | [1], |
| Sensors and point defects | [1], |
| Shear modulus | [1], |
| Shear strain | [1], |
| Shockley partial dislocation | [1], |
| Shockley partials | [1], [2], [3], |
| Shuffle set dislocations | [1], |
| Si wafer | [1], |
| Single crystal | [1], |
| Sinks for point defects | [1], |
| Sirtl etch | [1], [2], |
| Small angle grain boundary | [1], |
| Small-angle grain boundary | [1], |
| Snoek effect | [1], |
| Solid state diffusion | [1], |
| Solubility | [1], |
| Solubility energy | [1], |
| Solubility enthalpy | [1], |
| Solubility entropy | [1], [2], |
| Sources for point defects | [1], |
| Spatha from Ingersheim | [1], |
| Sphalerite structure | [1], |
| Spinel structure | [1], |
| Split dislocation | [1], |
| Stacking fault | [1], |
| Stacking fault energy | [1], |
| Stacking fault fringes | [1], |
| Stacking fault loops | [1], |
| Stacking fault tetrahedra | [1], [2], |
| Stacking fault; in split dislocations | [1], |
| Stacking faults | [1], |
| Stacking faults in the DSC lattice | [1], |
| Stair-rod dislocations | [1], [2], [3], |
| Standard reaction enthalpy | [1], |
| State function | [1], |
| State function of a classical particle | [1], |
| Steam engine, and steel production | [1], |
| Steel | [1], |
| Steel; brief history of | [1], |
| Step in a grain boundary | [1], |
| Steps in phase boundaries | [1], |
| Stirling formula | [1], |
| Stirlings formula | [1], |
| STM image of point defects | [1], |
| Stochiometric point | [1], |
| Stoichiometry | [1], |
| Strain | [1], |
| Strain energy | [1], |
| Strain field | [1], |
| Strain field of a screw dislocation | [1], |
| Strain field of an edge dislocation | [1], |
| Strain tensor | [1], |
| Strain; definition of | [1], |
| Strained layer | [1], |
| Stress | [1], |
| Stress field | [1], |
| Stress field of a screw dislocation | [1], |
| Structure elements | [1], [2], |
| Structure sensitive propetires | [1], |
| Subdeterminant | [1], |
| Superconductors | [1], |
| Superplasticity of wootz steel | [1], |
| Swirl defects | [1], |
| Swirl defects in Si | [1], |
| Sword from Ingersheim | [1], |
| Swords | [1], |
| Swords, magical or famous | [1], |
| T, | |
| Temperature (Kelvin scale) | [1], |
| Tensile strain; at a dislocation | [1], |
| Tensor | [1], |
| Tetragonal lattice | [1], |
| Tetrahedral site | [1], |
| Theory of science | [1], |
| Thermal equilibrium | [1], |
| Thermal kinks | [1], |
| Thermodynamic potential | [1], [2], [3], |
| Thickness contours | [1], |
| Thompson tetrahedron | [1], |
| Three dimensional defects | [1], |
| Tilt boundary | [1], |
| Tizona | [1], |
| Toledo | [1], |
| Toledo and steel | [1], |
| Total differential | [1], |
| Tourendal | [1], |
| Tracer atoms | [1], |
| Transformation matrix | [1], |
| Translation table Kröger-Vink to Schottky | [1], |
| Transmission electron microscope | [1], [2], |
| Transmogrification | [1], [2], |
| Triclinic lattice | [1], |
| Twin boundaries | [1], |
| Twist boundary | [1], |
| Two dimensional defects | [1], |
| U, | |
| Undersaturation | [1], |
| Unfaulting of stacking faults | [1], |
| Unit vectors of the O-lattice | [1], |
| Uphill diffusion | [1], |
| V, | |
| Vacancies as building blocks of a crystal | [1], |
| Vacancy | [1], [2], |
| Vacancy doping | [1], |
| Variations; in combinatorics | [1], |
| Variations; math of | [1], |
| Vector | [1], |
| Vikings | [1], |
| Virial equation | [1], |
| Voids | [1], |
| Volterra for stacking faults | [1], |
| Volterra knife | [1], |
| W, | |
| Waferbonding | [1], |
| Watered steel | [1], |
| Weak beam | [1], |
| Wigner | [1], |
| Wigner-Seitz cell | [1], [2], |
| Wigner-Seitz cells | [1], |
| Wootz steel | [1], [2], [3], [4], [5], |
| Work; done by moving a dislocation | [1], |
| Wright etch | [1], |
| Wrought iron | [1], [2], |
| Wrougth iron | [1], |
| Württembergisches Landesmuseum | [1], |
| X, | |
| x-ray diffraction | [1], |
| Y, | |
| Young´s modulus | [1], [2], |
| Z, | |
| Zero dimensional defects | [1], |
| Zinc blende | [1], |
| ZnS structure | [1], |
| Zr-oxide structure | [1], |
© H. Föll (Defects - Script)