Linked from

The 21 pages that link to Superconducting magnet, each with the reason it gives.

• SuperconductivityRelated: Zero-resistance current enables the strong, persistent fields used in MRI and research facilities.

• Large Hadron ColliderRelated: Superconducting dipole magnets bend the LHC’s proton beams around its circular tunnel.

• CERNRelated: Superconducting magnets bend and focus the high-energy beams in the Large Hadron Collider.

• CryogenicsBroader topic: Cryogenic cooling keeps its conductor below the superconducting transition temperature.

• High-temperature superconductivityRelated: Higher operating temperatures could simplify cooling for powerful magnets.

• Helium-4Related: Liquid helium-4 has traditionally cooled many superconducting magnet systems.

• Magnetic shieldingRelated: Its intense field can require shielding to protect nearby equipment and control fringe fields.

• ElectromagnetBroader topic: It is a specialized electromagnet for producing very strong fields efficiently.

• MaglevRelated: Japanese SCMaglev trains use these powerful magnets to generate lift and guidance forces.

• Type-II superconductorRelated: Type-II wires remain superconducting in the intense fields required by many magnets.

• Liquid heliumRelated: Liquid helium has traditionally cooled magnets made from low-temperature superconductors.

• FermilabRelated: Superconducting magnets shaped and confined the Tevatron's high-energy proton and antiproton beams.

• Iron-based superconductorRelated: High-field iron-based compounds are studied for magnets that could operate beyond conventional limits.

• TevatronRelated: Superconducting magnets bent the Tevatron’s beams around its circular tunnel.

• Type-I superconductorRelated: Type-I materials’ low critical fields generally make them unsuitable for high-field magnet windings.

• Alexei AbrikosovRelated: Type-II superconductors can carry high currents in magnetic fields, enabling practical high-field magnets.

• Vitaly GinzburgRelated: Type-II superconductivity, described by the theory Ginzburg helped establish, enables strong practical magnets.

• K. Alex MüllerRelated: Higher operating temperatures could reduce the cooling burden for superconducting magnet systems.

• Georg BednorzRelated: The broader search for higher-temperature superconductors aims to reduce cooling demands for such devices.

• Large Helical DeviceRelated: Superconducting coils generate the device’s strong, persistent helical magnetic field.

• Rare-earth barium copper oxideRelated: REBCO tape can support strong magnetic fields in compact high-field coils.