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The 83 pages that link to Phase transition, each with the reason it gives.

• Statistical mechanicsRelated: Collective microscopic interactions produce abrupt or critical changes in macroscopic properties.

• ThermodynamicsRelated: Thermodynamic potentials identify phase stability and transition conditions.

• Phase diagramRelated: Crossing a phase boundary corresponds to a phase transition.

• EmergenceRelated: At a transition, a system can acquire collective properties absent in its previous regime.

• HydrateRelated: Water loss can trigger a hydrate’s crystal structure to transform into another phase.

• CalorimetryRelated: Latent heat during a transition can be measured even while temperature remains constant.

• HysteresisRelated: Some transitions occur at different thresholds in opposite directions, producing hysteresis.

• Ice crystalRelated: Freezing changes liquid water into an ordered solid phase.

• Thermal energyRelated: Energy can change a substance’s microscopic arrangement without raising its temperature.

• Crystal polymorphismRelated: A polymorph can transform into another when conditions change.

• Thermodynamic stateRelated: It marks where a change in state variables alters the stable phase.

• Rankine cycleRelated: Boiling and condensation let the working fluid absorb and reject heat efficiently.

• AllotropyRelated: Changes in temperature or pressure can transform one allotrope into another.

• Crystal waterRelated: Dehydration can produce a new crystalline phase rather than merely a lighter sample.

• Free energyRelated: Competing phases are stable where their Gibbs free energies are lowest.

• Self-organizationRelated: Crossing a threshold can make an unorganized state give way to collective order.

• Symmetry breakingRelated: Many symmetry-breaking changes occur at phase transitions, though the ideas are not identical.

• Solid-state physicsRelated: Solids can change structure or ordering when control parameters cross critical values.

• Silver iodideRelated: AgI changes crystal structure with temperature, affecting its properties.

• Thermodynamic limitRelated: Sharp phase transitions generally emerge only when system size becomes infinite.

• Uranium hexafluorideRelated: UF₆ can be sublimed, condensed, and vaporized to support handling and feed preparation.

• Lattice parameterRelated: Discontinuities or symmetry changes in lattice parameters can mark structural transitions.

• High-pressure mineral physicsRelated: Pressure-induced transitions create boundaries between mineral layers.

• Fluorite structureRelated: Temperature, pressure, or composition can shift fluorite-related compounds into other phases.

• SuperconductorRelated: The superconducting state emerges through a transition at a characteristic temperature.

• Complex systemRelated: Complex systems can shift abruptly from one collective regime to another.

• Sulfate mineralRelated: Temperature and water activity can shift sulfate minerals between distinct structural phases.

• PhaseRelated: It describes how a region of matter changes from one phase to another.

• Vitaly GinzburgRelated: Superconductivity and superfluidity emerge as phase transitions whose behavior Ginzburg analyzed.

• BrookiteRelated: Heating can transform brookite into other titanium dioxide polymorphs.

• State of matterRelated: State changes occur when conditions cross a phase boundary.

• ThermochemistryRelated: Physical transformations also exchange heat, often without changing chemical identity.

• Intensive and extensive propertiesRelated: Transitions are often identified by singular behavior in intensive properties or thermodynamic potentials.

• AllotropeRelated: Some allotrope changes accompany a change in crystal phase while the element remains solid.

• Edge of chaosRelated: The edge-of-chaos idea borrows the image of a boundary between regimes.

• History of thermodynamicsRelated: Thermodynamics provided a framework for classifying phase changes and their critical behavior.

• Thermodynamic free energyRelated: At equilibrium, competing phases have equal relevant thermodynamic potentials.

• Disordered systemsRelated: Disorder can shift, broaden, or alter the universality of transitions.

• Macroscopic scaleRelated: Large-scale collective changes can produce sharp macroscopic differences between phases.

• Yang Chen-NingRelated: Yang’s statistical-mechanics results helped connect phase transitions with mathematical properties of partition functions.