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The 32 pages that link to Amorphous solid, each with the reason it gives.

• Crystal structureCompared with: It contrasts with a crystal by lacking a repeating structure throughout the material.

• Crystal latticeCompared with: Unlike a crystal lattice, its structure does not repeat periodically over long distances.

• CrystallizationCompared with: It is a disordered solid state from which crystallization can occur.

• X-ray diffractionCompared with: Its diffuse scattering contrasts with the discrete reflections from periodic crystals.

• GlassNarrower topic: Glass is a familiar example of this structural class.

• Bravais latticeCompared with: It lacks the repeating translational structure that defines a Bravais lattice.

• Unit cellCompared with: Without long-range periodicity, an amorphous solid has no repeating crystallographic unit cell.

• CrystallographyCompared with: Its lack of periodic order prevents the sharp Bragg diffraction patterns central to crystallography.

• Crystal polymorphismCompared with: An amorphous form is structurally disordered, not an alternative crystal polymorph.

• VitrificationNarrower topic: The product of vitrification is the amorphous state itself.

• MetastabilityRelated: Many amorphous solids are kinetically trapped in higher-free-energy structures.

• AllotropyCompared with: Amorphous and crystalline forms differ in order, not necessarily in elemental identity.

• Crystal growthCompared with: It shows what solidification produces when particles do not establish crystalline order.

• PolycarbonateRelated: Polycarbonate’s largely amorphous structure supports transparency by limiting light-scattering crystals.

• QuasicrystalCompared with: Unlike amorphous solids, quasicrystals produce sharp diffraction peaks.

• ElastomerNarrower topic: Many elastomers are predominantly amorphous, allowing their chains to rearrange under strain.

• CrystallinityCompared with: It marks the low-order limit against which crystallinity is often assessed.

• Silica gelRelated: Silica gel’s disordered silica network distinguishes it from crystalline quartz.

• Cosmic dustRelated: Much interstellar dust is structurally disordered rather than neatly crystalline.

• Metastable stateRelated: Glassy materials can be kinetically trapped away from crystalline equilibrium.

• Phase-change memoryRelated: The amorphous state generally has higher electrical resistance than the crystalline state.

• Polycrystalline materialCompared with: It has no crystalline grains or crystallographic grain boundaries.

• Powder diffractionCompared with: It produces broad scattering features rather than sharp crystalline Bragg peaks.

• Allotropes of carbonCompared with: Some carbon materials lack the regular structures used to define crystalline allotropes.

• CrystalliteCompared with: Unlike a crystallite, it has no extended region of periodic crystal structure.

• State of matterRelated: It shows that solidity does not require a regular crystal lattice.

• Crystal engineeringCompared with: Some molecular materials resist crystallization, limiting strategies based on ordered packing.

• Fused quartzRelated: Its disordered silica network distinguishes fused quartz from crystalline quartz.

• AllotropeCompared with: It contrasts with crystalline allotropes whose atoms occupy ordered structures.

• Cotton candyNarrower topic: Cotton candy’s strands are disordered sugar glass, not tiny sugar crystals.

• Disordered systemsBroader topic: It is a direct example of disorder in material structure.

• Network solidRelated: A network solid may be crystalline or amorphous; bonding continuity does not require crystalline order.