Quantum Chemistry of Solids / 30-back-matter
.pdf554 |
Index |
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- SrZrO3 |
403 |
- structure parameters |
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- SnO2 (110) 496 |
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- TiO2 |
396 |
- supercell model |
- SrTiOO3 446 - total energy
- cohesive energy 394 - vibrational frequences
- TiO2 407
- calculation 404
Chemical bonding in crystals
- Wannier functions for valence bands - crystalline oxides 358
-localized orbitals
-local electronic structure properties 363
-Wannier-type atomic functions
- PbTiO3 354
- SrTiO3,BaTiO3 353
-local properties of electronic structure 351
-bulk crystal
- TiO,TiO2,Ti2O3 |
342, 344, 347 |
- crystallographic valence |
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- crystalline oxides |
335 |
- cyclic cluster |
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- crystalline oxides |
334, 335 |
- Cu4O3, Pb2O3, Pb3O4 339 |
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- La2CuO4,La2NiO4 |
341 |
- YBa2Cu3O7 340 |
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- density matrix |
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- LCAO 328 |
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- natural orbitals 330, 332 |
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- electron correlation |
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- molecular-crystalline approach 332 - Ti2O3 349
- local properties of electronic structure
- atomic population |
329 |
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- bond order,covalency |
329 |
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- total atomic valency |
330 |
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- localized orbitals |
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- MgO |
368 |
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- SrZrO3 |
364, 368 |
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- population analysis |
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- projection technique |
369 |
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- projection technique |
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- Si, SiC, GaAs, MgO, TiO2 370 |
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- SrTiO3, SrZrO3 |
372, 374 |
Computer programs for LCAO calculations 527
Conventional unit cell |
15 |
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Crystal structure |
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- cubic |
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- zincblende |
31 |
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- antifluorite |
31 |
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- cesium chloride |
32 |
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- diamond |
29 |
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- fluorite |
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31 |
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- perovskite |
33 |
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- rocksalt |
30 |
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- database |
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27 |
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- description |
26 |
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- hexagonal |
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- ScMnO3 |
45 |
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- graphite |
43 |
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- wurtzite ZnS 45 |
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- orthorhombic |
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- LaMnO3 |
38 |
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- rhombohedral |
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- αAl2O3, corundum 46 |
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- tetragonal |
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- La2CuO4 |
37 |
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- YBa2Cu3O7 |
41 |
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- anatase |
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36 |
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- rutile |
35 |
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- type |
26 |
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Crystal system |
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- cubic |
12 |
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- hexagonal |
12 |
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- monoclinic |
12 |
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- orthorhombic |
12 |
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- rhombohedral |
12 |
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- syngony |
11, 12 |
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- tetragonal |
12 |
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- triclinic |
12 |
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Crystallographic point groups |
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- Sch¨onflies notation |
15 |
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- international notation |
15 |
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Density matrix |
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- crystal |
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133 |
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- LCAO approximation |
137 |
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- approximate |
140 |
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- properties |
133, 135 |
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- cyclic cluster |
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- properties |
136 |
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- molecule |
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107 |
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Density-functional theory (molecules)
-Thomas-Fermi model 231 Density-functional theory(crystals)
-LCAO approximation 250
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Index |
555 |
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- HSE screened Coulomb hybrid |
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- CI-method |
151 |
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functional |
259 |
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- CISDT-method |
153 |
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- HSE03 hybrid functional |
261 |
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- MCSCF-method |
153 |
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- Kohn–Sham equations |
252 |
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- coupled cluster-method |
154 |
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- linear-scaling method |
253, 256 |
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- local electron-correlation methods |
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- screened Coulomb hybrid functional |
158, 162 |
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262 |
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- perturbation theory |
155 |
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- exchange-correlation functionals |
264 |
- spin correlation |
148 |
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- LDA+U method |
275 |
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Equivalent points of space |
8 |
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- SIC-LSDA method |
271 |
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Density-functional theory(molecules) |
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Group 7 |
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- Hohenberg–Kohn theorems |
232 |
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- diperiodic (layer) |
460 |
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- Kohn–Sham equations |
234, 237 |
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- plane |
460 |
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- generalized-gradient approximation |
- point |
7 |
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GGA |
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- space |
7 |
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- PBE functional |
243 |
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- subperiodic |
460 |
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- exchange-correlation functionals |
242 |
- translation |
7 |
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- local spin density approximation LSDA |
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239 |
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Hartree–Fock method |
107 |
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- local density approximation LDA |
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- Coulomb operator |
107 |
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- exchange-correlation functionals |
239 |
- LCAO approximation |
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- orbital-dependent exchange-correlation |
- crystals |
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121, 122 |
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functionals |
244 |
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- cyclic cluster |
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117 |
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- hybrid functionals |
246, 248 |
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- molecules |
115 |
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- UHF |
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E ective core potentials |
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- crystals |
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123 |
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- relativistic |
314 |
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- cyclic cluster |
222 |
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- basis sets |
318 |
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- exchange operator |
108 |
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- generalized |
316 |
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- local exchange approximation 109 |
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- periodic systems |
320 |
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- restricted RHF |
112 |
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E ective core potentials |
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- restricted for open shells ROHF |
114 |
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- nonrelativistic |
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- self-consistent calculation |
108 |
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- Hay–Wadt potentials |
304 |
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- symmetry of Fockian |
109 |
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- energy-consistent |
300 |
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- unrestricted UHF |
114 |
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- generation |
301 |
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- norm-conserving |
302 |
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Induced representations |
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- pseudo wavefunctions |
298 |
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- of point group |
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67 |
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- valence basis-sets |
302 |
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- correlation table |
69 |
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- separable embedding potentials |
305 |
- of space group |
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- relativistic |
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- k-basis |
74 |
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- Stevens–Basch–Krauss potentials |
- q-basis |
72 |
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304 |
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- composite |
76 |
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- Stuttgart-Dresden potentials 304 |
- simple |
76 |
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Electron correlation |
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- tables |
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78 |
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- crystals |
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Irreducible representations |
7 |
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- Laplace-MP2 |
174, 177 |
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- of space group |
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- embedded cluster |
168 |
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- full representation 60 |
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- local MP2 method |
180, 184 |
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- small(allowed) representation |
60 |
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- local electron-correlation methods |
- of translation group |
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164, 166 |
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- k vector |
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51 |
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- method of increments |
166, 170, 173 |
- Bloch functions |
52 |
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- molecules |
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- Brillouin zone |
52 |
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556 |
Index |
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Layer group |
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- MgO crystal |
415, 419 |
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- Brillouin zone |
464 |
- binary oxides |
426 |
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- element |
461 |
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- charged defects 421 |
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- irreducible representations 464 |
- convergence |
423 |
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- setting |
461 |
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- interstitial oxygen in MgO |
428 |
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- site-symmetry |
463 |
- oxygen vacancy in Al2O3 |
429 |
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- table 462 |
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- symmetry 414, 415 |
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LCAO and PW basis |
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Primitive unit cell |
11 |
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- Wannier-type atomic functions |
Projective representations |
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- MgO |
357 |
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- characters |
64 |
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Local properties of electronic structure |
- factor system |
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62 |
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- molecules |
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- of point group |
62 |
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- Wiberg index |
140 |
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- atomic covalence |
140 |
Reference unit cell |
11 |
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Localized orbitals |
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Relativistic theory |
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- crystalline |
86, 88, 89 |
- molecules |
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- for valence bands |
94 |
- Dirac–Hartree–Fock method |
310, 311 |
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- molecular |
70 |
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- Dirac–Kohn–Sham method |
313 |
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- generation |
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71 |
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Semiempirical LCAO methods 193 |
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Molecular cluster |
10 |
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- crystals |
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Monoatomic crystal |
11 |
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- cyclic cluster |
212, 215, 217 |
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- CNDO |
209 |
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Orbits of points |
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8 |
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- Mulliken-R¨udenberg |
201 |
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- crystallographic |
22 |
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- extended H¨uckel |
195 |
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- in a crystal |
9 |
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- molecules |
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- in a molecule |
8 |
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- CNDO |
203, 205 |
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- INDO |
205 |
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Point defects in solids |
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- MNDO |
206 |
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- classification |
409 |
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- MSINDO |
206 |
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- cyclic-cluster model |
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- Mulliken-R¨udenberg |
199, 201 |
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- F + center in Al2O3 433 |
- PM3 206 |
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- F center in Al2O3 |
432, 434 |
- extended H¨uckel |
194, 196 |
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- formation energy |
418 |
- cyclic cluster |
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- models |
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- CNDO |
218 |
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- cyclic cluster |
411 |
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- INDO |
220 |
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- cyclically-embedded cluster 424 |
- MSINDO |
221 |
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- molecular cluster |
410 |
Site-symmetry group |
8, 22 |
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- supercell |
412 |
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- oriented |
25 |
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- molecular-cluster model |
Solid solutions |
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- realization |
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422 |
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- supercell model |
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- perturbed-cluster model |
- LacSr1−cMnO3 |
453, 455 |
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- MgO |
425 |
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Space group |
17 |
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- supercell model |
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- 1D |
17 |
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- realization |
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417, 420 |
- 2D |
17 |
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- F center in SrTiO3 |
441, 443 |
- 3D |
17 |
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- Fe-impurity in SrTiO3 |
445, 448, 449 |
- designations |
18 |
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- SrTiO3, BaTiO3 |
438 |
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- elements 17 |
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- oxygen vacancy in SrTiO3 439 |
- nonsymmorphic 18 |
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- vanadium-doped T iO2 |
436 |
- plane |
17 |
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- T iO2 416 |
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- symmorphic |
18 |
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- F center in Al2O3 |
431 |
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- table |
18 |
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Supercell |
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- for centered lattices 16 |
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- transformation |
16 |
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- symmetrical |
124, 521 |
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Surfaces of crystals |
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- (001) |
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- MgO |
471 |
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- cubic perovskites |
473 |
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- (110) |
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- T iO2 |
471 |
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- surface energy |
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- T iO2 (110) |
477 |
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- MgO (001) |
475, 476 |
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- slab model |
474 |
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- SnO2(110) |
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- atomic charges |
499 |
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- BSSE |
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- SnO2 (110) |
497 |
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- atomic charges |
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- LaM nO3 (001) |
516 |
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- bare surface (001) |
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- SrT iO3, SrZrO3 |
507, 509 |
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- cyclic cluster |
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- T iO2 (110) |
482 |
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- density of states |
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- SrT iO3, SrZrO3 (001) |
512 |
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- models |
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- molecular cluster |
459 |
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- periodic slab (supercell) |
459 |
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- semi-infinite crystal 459 |
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- single slab |
459 |
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- molecular cluster |
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- T iO2 (110) |
483 |
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- T iO2 (110) |
484 |
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- slab |
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- SnO2 (110) |
496 |
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- surface F center |
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- SrT iO3 (001) 513 |
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- surface energy |
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- LaM nO3 (001) |
515, 517 |
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- SnO2(110) |
497 |
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- SrT iO3, SrZrO3 (001) |
511 |
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- water adsorption |
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Index |
557 |
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- SnO2(100) |
505 |
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- SnO2(110) |
501, 503 |
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- T iO2 (110) |
484, 488, 490, 492, 493 |
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Surfaces types |
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- type-1 |
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- MgO |
466, 467 |
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- type-2 |
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- TiO2 (110) |
468 |
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- type-3 |
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- SrT iO3, LaM nO3 |
469, 470 |
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Symmetry elements 7 |
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Symmetry operations |
7 |
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Symmetry properties |
48 |
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- of crystalline orbitals |
49 |
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- of molecular orbitals |
49 |
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- of the Hamiltonian |
48 |
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- time-reversal transformation |
50 |
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Translation |
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- improper or fractional |
17 |
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- proper |
17 |
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Wannier function |
87, 90 |
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- local MP2 method |
185 |
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- surface |
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- slab model |
478 |
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- surface |
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- M gO (001) |
479 |
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- T iO2 (110) |
480 |
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- Wannier type atomic orbitals |
96 |
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- generation 91, 92, 94 |
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- variational method |
97 |
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- comparison of methods 95 |
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- variational method |
99, 101 |
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-symmetry
-local MP2 method 189 Wavevector
- little group 60 |
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- point-symmetry group |
57 |
- star 58 |
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Wycko positions |
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- notation 22 |
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- parameter-dependent |
22 |
- parameter-free 22 |
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