Linked from

The 36 pages that link to Ferromagnetism, each with the reason it gives.

• Magnetic susceptibilityBroader topic: Its response can be nonlinear and history-dependent, unlike simple linear susceptibility.

• Spontaneous symmetry breakingBroader topic: A magnet’s chosen direction breaks rotational symmetry in the absence of an aligning field.

• NickelRelated: Nickel is one of the few elemental metals that is ferromagnetic near room temperature.

• Curie temperatureNarrower topic: Curie temperature marks the loss of this ordered magnetic state.

• Magnetic domainNarrower topic: Ferromagnetic order supports domains separated by walls.

• MagnetizationCompared with: It is a prominent source of large, persistent magnetization.

• ParamagnetismCompared with: Its collective alignment can persist after the applied field is removed.

• CobaltRelated: Cobalt is one of the few elements that is ferromagnetic at room temperature.

• Order parameterBroader topic: Magnetization serves as its standard order parameter.

• Ising modelRelated: The model's positive neighbor coupling captures the tendency of ferromagnets to align.

• AntiferromagnetismCompared with: It contrasts with the antiparallel alignment and near-cancellation of antiferromagnets.

• Exchange interactionRelated: Positive effective exchange often favors parallel neighboring spins.

• Magnetic permeabilityBroader topic: Its nonlinear, history-dependent response makes permeability vary widely with field and operating point.

• SuperparamagnetismCompared with: Unlike stable ferromagnets, superparamagnetic particles have no persistent moment direction above blocking.

• Symmetry breakingBroader topic: A ferromagnet selects a magnetization direction despite rotationally symmetric underlying interactions.

• Magnetic separationRelated: Ferromagnetic particles are readily attracted and are often the easiest fraction to recover.

• FerrimagnetismCompared with: Unlike ferrimagnets, ferromagnets do not rely on opposing sublattices for net magnetization.

• DiamagnetismCompared with: Ferromagnetic ordering can overwhelm diamagnetism and produce a much stronger response.

• FerroelectricityRelated: Its switchable magnetization inspired the name and provides a close magnetic analogue.

• Magnetic shieldingRelated: Ferromagnetic materials can guide flux, but their own magnetization can complicate shielding.

• MagnetismBroader topic: It produces the familiar persistent magnetization of many permanent magnets.

• Solid-state physicsBroader topic: It demonstrates how interactions among atomic moments create macroscopic order.

• ElectromagnetRelated: Ferromagnetic cores respond strongly to the field generated by the winding.

• SpintronicsRelated: Ferromagnets provide stable magnetic states that encode spintronic bits.

• Permanent magnetNarrower topic: Most strong permanent magnets rely on ferromagnetic order.

• Rare-earth magnetNarrower topic: Rare-earth magnets retain strong magnetization through ferromagnetic ordering.

• Pauli paramagnetismCompared with: Pauli paramagnetism is a weak induced response, not spontaneous magnetic order.

• NeodymiumRelated: Neodymium compounds and alloys can sustain strong magnetic order.

• Vacuum permeabilityCompared with: Ferromagnetic materials can have permeability far greater and less constant than μ₀.

• Magnetic sensorRelated: Ferromagnetic materials provide the strong, field-dependent responses used in many sensor designs.

• Curie's lawCompared with: Collective ordering makes Curie's law inadequate near and below a ferromagnet's transition.

• Spontaneous magnetizationNarrower topic: It is the principal ordering phenomenon that produces spontaneous magnetization.

• Classical spin modelsRelated: Ferromagnetic couplings in spin models capture spontaneous alignment.

• Hopkinson effectNarrower topic: The effect occurs in ferromagnets as their spontaneous order approaches its disappearance.

• Louis NéelRelated: Néel’s theories addressed magnetic behaviors that differ from this familiar order.

• Magnetic systemsBroader topic: It is the familiar ordered state behind many permanent magnets.