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The 102 pages that link to Crystal lattice, each with the reason it gives.

• X-ray crystallographyNarrower topic: The lattice’s periodicity creates the regular diffraction pattern used in structure determination.

• Crystal systemNarrower topic: Crystal systems classify the symmetries and geometries possible for periodic crystal structures.

• X-ray diffractionNarrower topic: Periodic lattice order gives rise to discrete diffraction reflections.

• PhononNarrower topic: Its periodicity sets the allowed wavevectors and vibrational patterns for phonons.

• DislocationNarrower topic: Dislocations are deviations from this repeating arrangement.

• AnisotropyNarrower topic: Lattice arrangement provides the structural basis for many crystalline anisotropies.

• Ice crystalNarrower topic: The lattice is the repeating spatial pattern occupied by molecules in crystalline ice.

• Unit cellNarrower topic: The unit cell is a finite region whose translations generate this periodic arrangement.

• Metallic bondingNarrower topic: The positively charged metal ions occupy ordered sites within a lattice.

• Orthorhombic crystal systemNarrower topic: The orthorhombic unit cell repeats through a lattice to describe crystal periodicity.

• Lattice energyNarrower topic: The three-dimensional arrangement determines which electrostatic interactions contribute to lattice energy.

• Reciprocal latticeNarrower topic: The reciprocal lattice is defined from this underlying periodic arrangement.

• Brillouin zoneNarrower topic: Its periodicity determines the geometry of the reciprocal lattice.

• Point defectNarrower topic: Point defects are departures from the regular atomic positions represented by a lattice.

• Crystal growthNarrower topic: Growth extends a lattice by placing new particles into compatible positions.

• Rock salt structureNarrower topic: The rock salt arrangement is one specific three-dimensional crystal lattice.

• Band structureNarrower topic: Its periodicity supplies the symmetry underlying electronic bands.

• Cubic crystal systemNarrower topic: Cubic crystal structures arise from lattices compatible with cubic symmetry.

• Hexagonal crystal systemNarrower topic: Its translational symmetry underlies the hexagonal system’s unit-cell geometry.

• Band theoryNarrower topic: Its repeating potential shapes the electron states from which bands emerge.

• Cleavage (crystal)Narrower topic: Cleavage planes follow directions through this repeating atomic arrangement.

• Crystal habitNarrower topic: The lattice constrains which faces and shapes a growing crystal can develop.

• Molecular beam epitaxyNarrower topic: The substrate lattice guides the arrangement of atoms deposited during epitaxial growth.

• Oxygen vacancyNarrower topic: The vacancy is defined by the oxygen site missing from this repeating arrangement.

• Electronic band structureNarrower topic: Its repeating structure underlies the periodic potential used to calculate bands.

• Miller indicesNarrower topic: Miller indices describe orientations within this periodic framework.

• Lattice parameterNarrower topic: Lattice parameters specify the geometry of the repeating translations that generate it.

• Precipitation hardeningNarrower topic: The matrix lattice constrains precipitate structure and dislocation motion.

• Color centerNarrower topic: A color center is defined by how a localized defect disrupts this periodic structure.

• Crystal twinningNarrower topic: Twin operations act on the periodic lattice shared by the crystal domains.

• Frenkel defectNarrower topic: The regular sites of this arrangement define where the displaced particle starts.

• Poisson summation formulaNarrower topic: The formula sums over a lattice and its corresponding dual subgroup.

• Powder diffractionNarrower topic: Its repeating geometry sets the possible diffraction spacings.

• Interstitial defectNarrower topic: Interstitial positions are defined relative to the lattice’s regular sites.

• Trigonal crystal systemNarrower topic: Lattice geometry is distinct from the point-group symmetry used to classify the system.

• AnataseNarrower topic: Anatase's distinguishing form arises from the arrangement of atoms in its lattice.

• Lithium fluorideNarrower topic: Solid LiF adopts an ordered lattice rather than existing as isolated ion pairs.

• Rutile structureNarrower topic: The rutile structure combines a tetragonal lattice with a specific atomic basis.

• Wurtzite crystal structureNarrower topic: The wurtzite arrangement is a specific periodic lattice with a hexagonal unit cell.

• SpinelNarrower topic: Spinel’s ordered lattice governs its structure and the sites impurities can occupy.

• Crystallographic restriction theoremNarrower topic: The theorem concerns rotational symmetries of such discrete subgroups.

• Miller indexNarrower topic: Miller indices describe planes relative to the axes of this repeating framework.

• Crystallographic defectNarrower topic: Defects are departures from this underlying periodic arrangement.

• Manganese(II) oxideNarrower topic: MnO's rock-salt arrangement is one specific ionic crystal lattice.

• Silver azideNarrower topic: The solid’s ordered lattice governs its structure and contributes to its measured properties.

• Caesium chlorideNarrower topic: The CsCl structure is a repeating arrangement of two ion types.

• Caesium iodideNarrower topic: CsI’s ordered lattice determines its symmetry, cleavage, and many bulk properties.

• Einstein solidNarrower topic: The model idealizes atoms in this structure as independent vibrators.

• Non-stoichiometric compoundNarrower topic: Non-stoichiometry arises when atoms or ions occupy this repeating arrangement imperfectly.

• Clathrate compoundNarrower topic: The host lattice supplies the ordered framework and cavities characteristic of a clathrate.