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The 42 pages that link to Magnetic susceptibility, each with the reason it gives.

• Nuclear magnetic resonanceRelated: Susceptibility differences can alter local fields and distort NMR and MRI signals.

• Magnetic momentRelated: Susceptibility describes a material's collective response rather than one dipole's moment.

• AnisotropyRelated: In anisotropic substances, the response can depend on the field’s orientation.

• Magnetic hysteresisCompared with: A single-valued susceptibility describes reversible response, unlike a history-dependent loop.

• Curie temperatureRelated: Its temperature dependence changes sharply near the magnetic ordering transition.

• MagnetizationRelated: It quantifies the response linking applied field to magnetization in many materials.

• ParamagnetismNarrower topic: Paramagnetism is identified by a small, positive susceptibility.

• Magnetic anisotropyCompared with: Susceptibility describes field response, while anisotropy describes its dependence on orientation.

• AntiferromagnetismRelated: Its temperature dependence reveals the transition into antiferromagnetic order.

• Magnetic levitationRelated: It helps predict whether a material is attracted to or repelled by a field.

• Magnetic permeabilityRelated: For linear materials, susceptibility determines permeability relative to free space.

• MagnetometerRelated: The sensor’s material properties affect how it responds to the field being measured.

• MagnetostratigraphyCompared with: Susceptibility indicates magnetic mineral content but does not by itself reveal remanent polarity.

• Magnetic separationRelated: Differences in susceptibility help determine which particles a separator can attract.

• Meissner effectNarrower topic: The effect appears as strong diamagnetic response, although superconducting field exclusion is more specific than ordinary diamagnetism.

• PolarizabilityCompared with: It concerns magnetic rather than electric response.

• DiamagnetismNarrower topic: Diamagnetism is identified by susceptibility below zero.

• MagnetismRelated: It quantifies how materials respond to external fields.

• Electric susceptibilityCompared with: It is the magnetic analogue, involving magnetization rather than electric polarization.

• Bohr magnetonRelated: Microscopic magnetic moments measured in Bohr magnetons contribute to bulk response.

• Magnetic resonance angiographyRelated: Susceptibility differences can affect vascular image quality and create artifacts near metal.

• Superconducting quantum interference deviceRelated: SQUID magnetometers quantify small material responses used to determine susceptibility.

• Magnetic anomalyRelated: Contrasts in susceptibility make nearby rocks respond differently to the ambient field.

• Pauli paramagnetismNarrower topic: Pauli paramagnetism is one microscopic contribution to this bulk response.

• Curie–Weiss law (magnetism)Narrower topic: The law specifies susceptibility’s temperature dependence.

• Vacuum permeabilityRelated: It describes material response beyond the vacuum permeability baseline.

• AntiaromaticityRelated: Magnetic response offers an experimental probe of cyclic π-electron behavior.

• Linear response theoryBroader topic: It is a direct example of a response coefficient derived by the theory.

• John Hasbrouck Van VleckRelated: His theories explained how quantum states determine this central observable of magnetism.

• Curie's lawNarrower topic: Curie's law specifies how this response changes with temperature in paramagnets.

• Magnetic resonanceRelated: It describes bulk magnetic response, unlike resonance, which occurs at selected frequencies.

• Spontaneous magnetizationRelated: Its behavior near an ordering transition tracks the material’s magnetic response.

• Bohr–van Leeuwen theoremRelated: The theorem implies zero equilibrium susceptibility for classical matter under its assumptions.

• Hellmann–Feynman theoremRelated: Energy derivatives with respect to magnetic fields connect to magnetic response.

• Hopkinson effectRelated: Its temperature dependence helps explain the permeability maximum near the transition.

• Louis NéelRelated: Changes in susceptibility helped reveal the transitions described by Néel’s theories.

• Magnetic systemsRelated: It provides a basic quantitative description of material response.

• Magnetic techniquesRelated: Differences in susceptibility enable contrast and separation between materials.

• Methods in magnetismNarrower topic: Many magnetic measurements infer material response from this quantity.

• Methods in superconductivityRelated: It provides a magnetic signature that complements transport-based evidence for superconductivity.

• Near-surface geophysicsRelated: Material susceptibility controls many magnetic anomalies used in shallow surveys.

• Rock magnetismRelated: It provides a basic measure of a rock’s induced magnetic response.