Linked from

The 64 pages that link to Superconductivity, each with the reason it gives.

• Ivar GiaeverNarrower topic: Giaever measured how superconducting energy gaps shape tunneling currents.

• James DewarRelated: The low-temperature techniques Dewar helped develop later enabled experiments on superconducting materials.

• Superfluid helium-4Compared with: Both are macroscopic quantum states, but helium-4 transports mass rather than electric current.

• K. Alex MüllerNarrower topic: Müller’s work revealed this state in ceramics at temperatures unusually high for the time.

• Cold atoms and matter wavesCompared with: Cold atoms can model aspects of superconductivity but carry no electrical current themselves.

• Cryogenics & vacuum technologyRelated: Cryogenic cooling makes superconductivity usable in magnets, sensors, and power systems.

• Electrical propertiesBroader topic: It is an exceptional electrical regime that departs sharply from ordinary resistive behavior.

• Electrical resistance and conductanceCompared with: It provides a distinct limiting case of resistance rather than ordinary finite opposition.

• Georg BednorzNarrower topic: Bednorz’s work identified superconductivity in materials operating at much higher temperatures than previously known.

• Joule's laws (electrical heating)Compared with: Ideal zero resistance eliminates ordinary Joule heating in steady current flow.

• Physical phenomenaBroader topic: It is a striking material behavior with consequences for magnets and electrical technology.

• Rare-earth barium copper oxideNarrower topic: The family became a landmark example of superconductivity at unusually high temperatures.

• Robert Coleman RichardsonRelated: The helium-3 discovery gave physicists a neutral-atom counterpart to paired-electron superconductivity.

• Superconducting detectorNarrower topic: It supplies the material behavior that superconducting detectors exploit.