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The 193 pages that link to Crystal structure, each with the reason it gives.

• QuartzRelated: Quartz’s repeating atomic arrangement determines its symmetry and physical properties.

• CeramicRelated: Ceramic crystal structures govern density, fracture behavior, and other material properties.

• Melting pointRelated: Bonding and packing in a crystal help determine the energy needed to melt it.

• MetallurgyRelated: Atomic packing influences deformation, diffusion, and phase stability in metals.

• DislocationRelated: Atomic packing and symmetry influence which dislocations form and how readily they move.

• MineralogyRelated: Atomic arrangement distinguishes minerals that share a chemical formula.

• GypsumRelated: Gypsum’s layered structure helps explain its softness and cleavage.

• AlloyRelated: Alloying atoms occupy or distort crystal lattices, influencing strength and other properties.

• HardnessRelated: Crystal geometry and available slip systems shape resistance to indentation.

• CalcinationRelated: Heating can alter a mineral's structure as well as its chemical composition.

• SaltRelated: Solid salt forms a repeating cubic arrangement of sodium and chloride ions.

• Sulfide mineralRelated: Atomic arrangement distinguishes mineral species with similar chemical compositions.

• Molecular symmetryRelated: Molecular symmetry contributes to the symmetry and packing of molecular crystals.

• Space groupRelated: A space group specifies symmetry shared by the structure's repeating arrangement.

• TungstenRelated: At ordinary conditions, tungsten atoms form a body-centered cubic lattice.

• Atomic radiusRelated: Crystal geometry provides the neighbor distances used to estimate metallic and ionic radii.

• Potassium nitrateRelated: The ions in solid potassium nitrate occupy an ordered lattice.

• Symmetry breakingRelated: Crystallization selects a spatial pattern that is less symmetric than the uniform state.

• Potassium permanganateRelated: The solid’s ionic arrangement differs from the separated hydrated ions in its purple solution.

• Condensed matter physicsRelated: Periodic atomic order shapes electron motion, vibrations, and many solid-state properties.

• Iron(III) oxideRelated: The corundum-type arrangement distinguishes hematite from other iron oxides.

• EfflorescenceRelated: Water occupies specific sites in many hydrate structures before it escapes.

• FerroelectricityRelated: Atomic positions and symmetry determine whether a crystal can sustain a polar state.

• Molar volumeRelated: Unit-cell dimensions and particles per cell determine a solid’s molar volume.

• Solid-state physicsRelated: Periodic atomic arrangements determine the symmetry and allowed states of many solids.

• Dihedral angleRelated: Angles between crystal planes help describe lattice geometry and interfaces.

• LatticeRelated: The lattice specifies repetition sites, while the motif supplies the atoms attached to them.

• Ammonium chlorideRelated: Its repeating lattice determines how ammonium and chloride pack in the solid.

• AmphiboleRelated: Amphibole’s atomic arrangement accounts for its chain geometry and cleavage.

• InosilicateRelated: The repeating arrangement of chains helps determine an inosilicate's properties and mineral identity.

• Van der Waals radiusRelated: Interatomic distances in crystals provide experimental data for estimating contact radii.

• Inorganic chemistryRelated: Many inorganic materials are best understood through their repeating atomic arrangements.

• Sodium acetateRelated: Its hydrated and anhydrous forms have distinct ordered solids and phase behavior.

• Sodium fluorideRelated: The repeating arrangement of sodium and fluoride ions defines solid NaF.

• TalcRelated: Talc’s repeating sheets account for its softness and slippery feel.

• Chemical compoundRelated: Many compounds form repeating structures whose geometry shapes their properties.

• High-pressure mineral physicsRelated: Structural changes explain why minerals adopt different forms at depth.

• Magnesium chlorideRelated: Its lattice organizes magnesium and chloride ions in the solid state.

• Magnesium hydroxideRelated: Layered hydroxide sheets characterize brucite’s solid structure.

• Metal (chemistry)Related: Metallic solids adopt crystal lattices that help determine their mechanical and physical properties.

• Mineral speciesRelated: A species is distinguished partly by its characteristic atomic arrangement.

• OsmiumRelated: Osmium’s hexagonal close-packed structure helps determine its density and mechanical behavior.

• Potassium sulfateRelated: Potassium sulfate forms an anhydrous ionic crystal with a characteristic lattice.

• SapphireRelated: Corundum’s specific atomic arrangement gives sapphire its characteristic hardness and optical behavior.

• ChromiteRelated: Chromite’s spinel structure governs its composition and physical properties.

• Iron(III) chlorideRelated: Anhydrous iron(III) chloride forms a layered crystal structure rather than a simple array of isolated ions.

• MuscoviteRelated: Muscovite’s repeating layers explain why it breaks in one direction far more easily than others.

• Native copperRelated: Copper atoms in crystalline native copper pack in a face-centered cubic arrangement.

• NiobiumRelated: Niobium’s body-centered cubic structure helps distinguish its physical properties from those of other metals.

• René Just HaüyRelated: Haüy proposed that regular internal arrangement accounts for crystals’ characteristic shapes.