KnowraSuperconductivityLinked fromLinked fromThe 64 pages that link to Superconductivity, each with the reason it gives.All 64Broader topic 9Related 19Narrower topic 22Compared with 14John BardeenNarrower topic: BCS theory gave a microscopic explanation for conventional superconductivity.Josephson effectNarrower topic: The effect arises from coherent superconducting states on both sides of the barrier.Superconducting magnetNarrower topic: Its zero-resistance state lets a closed magnet winding sustain current with little electrical loss.Meissner effectNarrower topic: The Meissner effect is one of the defining properties of this state.Superconducting quantum interference deviceNarrower topic: The loop must be superconducting to sustain coherent currents and quantized flux.Ginzburg–Landau theoryNarrower topic: Ginzburg–Landau theory is a macroscopic description of this state.Type-II superconductorNarrower topic: Type-II superconductivity is one magnetic response within this broader phenomenon.Abrikosov vortexNarrower topic: Vortices are structures within the superconducting state.Brian JosephsonNarrower topic: Josephson’s effects depend on the coherent state shared by superconductors.NiobiumNarrower topic: Niobium and its alloys become superconducting below characteristic critical temperatures.Leon CooperNarrower topic: Explaining this state was the problem that motivated Cooper’s work with Bardeen and Schrieffer.Type-I superconductorNarrower topic: Type-I behavior is one form of this broader state.Alexei AbrikosovNarrower topic: Abrikosov’s work addresses a magnetic-field regime within this broader phenomenon.Vitaly GinzburgNarrower topic: Ginzburg’s theory explains superconducting behavior through an order parameter and its response to magnetic fields.John Robert SchriefferNarrower topic: This is the physical phenomenon Schrieffer’s best-known theory explains.Yttrium barium copper oxideNarrower topic: The defining phenomenon observed in yttrium barium copper oxide is superconductivity.Anthony LeggettNarrower topic: Leggett’s work extended theories of paired-particle condensates relevant to superconducting materials.Ivar GiaeverNarrower topic: Giaever measured how superconducting energy gaps shape tunneling currents.K. Alex MüllerNarrower topic: Müller’s work revealed this state in ceramics at temperatures unusually high for the time.Georg BednorzNarrower topic: Bednorz’s work identified superconductivity in materials operating at much higher temperatures than previously known.Rare-earth barium copper oxideNarrower topic: The family became a landmark example of superconductivity at unusually high temperatures.Superconducting detectorNarrower topic: It supplies the material behavior that superconducting detectors exploit.
KnowraSuperconductivityLinked fromLinked fromThe 64 pages that link to Superconductivity, each with the reason it gives.All 64Broader topic 9Related 19Narrower topic 22Compared with 14John BardeenNarrower topic: BCS theory gave a microscopic explanation for conventional superconductivity.Josephson effectNarrower topic: The effect arises from coherent superconducting states on both sides of the barrier.Superconducting magnetNarrower topic: Its zero-resistance state lets a closed magnet winding sustain current with little electrical loss.Meissner effectNarrower topic: The Meissner effect is one of the defining properties of this state.Superconducting quantum interference deviceNarrower topic: The loop must be superconducting to sustain coherent currents and quantized flux.Ginzburg–Landau theoryNarrower topic: Ginzburg–Landau theory is a macroscopic description of this state.Type-II superconductorNarrower topic: Type-II superconductivity is one magnetic response within this broader phenomenon.Abrikosov vortexNarrower topic: Vortices are structures within the superconducting state.Brian JosephsonNarrower topic: Josephson’s effects depend on the coherent state shared by superconductors.NiobiumNarrower topic: Niobium and its alloys become superconducting below characteristic critical temperatures.Leon CooperNarrower topic: Explaining this state was the problem that motivated Cooper’s work with Bardeen and Schrieffer.Type-I superconductorNarrower topic: Type-I behavior is one form of this broader state.Alexei AbrikosovNarrower topic: Abrikosov’s work addresses a magnetic-field regime within this broader phenomenon.Vitaly GinzburgNarrower topic: Ginzburg’s theory explains superconducting behavior through an order parameter and its response to magnetic fields.John Robert SchriefferNarrower topic: This is the physical phenomenon Schrieffer’s best-known theory explains.Yttrium barium copper oxideNarrower topic: The defining phenomenon observed in yttrium barium copper oxide is superconductivity.Anthony LeggettNarrower topic: Leggett’s work extended theories of paired-particle condensates relevant to superconducting materials.Ivar GiaeverNarrower topic: Giaever measured how superconducting energy gaps shape tunneling currents.K. Alex MüllerNarrower topic: Müller’s work revealed this state in ceramics at temperatures unusually high for the time.Georg BednorzNarrower topic: Bednorz’s work identified superconductivity in materials operating at much higher temperatures than previously known.Rare-earth barium copper oxideNarrower topic: The family became a landmark example of superconductivity at unusually high temperatures.Superconducting detectorNarrower topic: It supplies the material behavior that superconducting detectors exploit.