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The 16 pages that link to Critical temperature, each with the reason it gives.

• SuperconductivityRelated: Crossing this threshold establishes the superconducting state, though fields and currents can also destroy it.

• Bose–Einstein condensateRelated: Below this threshold, a macroscopic fraction of bosons enters the ground state.

• High-temperature superconductivityRelated: It provides the defining temperature scale for comparing high-temperature superconductors.

• Superconducting magnetRelated: A superconducting winding must remain below its material’s transition temperature.

• Ising modelRelated: Below it, the zero-field ferromagnetic model can sustain spontaneous magnetization.

• SuperconductorRelated: Crossing this threshold determines when a material can become superconducting.

• Iron-based superconductorRelated: Comparing critical temperatures tracks how composition, pressure, and structure affect these compounds.

• Type-I superconductorRelated: It is a separate operating limit from the critical magnetic field that defines type-I behavior.

• Yttrium barium copper oxideRelated: The approximately 93 K transition temperature distinguishes this compound from earlier superconductors.

• K. Alex MüllerRelated: The unusually high transition temperature made the ceramic result striking.

• Georg BednorzRelated: Bednorz and Müller’s breakthrough raised the known superconducting transition temperature dramatically.

• Rare-earth barium copper oxideRelated: REBCO compositions differ in their transition temperature as oxygen content and processing change.

• Superconducting detectorRelated: Detector operation near this boundary makes small energy inputs produce measurable changes.

• Theorem of Corresponding StatesRelated: It is the reference temperature in the reduced-temperature definition.