Linked from

The 15 pages that link to Magnetic permeability, each with the reason it gives.

• Magnetic fieldRelated: It describes how materials alter magnetic fields within them.

• Magnetic susceptibilityCompared with: Permeability includes the vacuum contribution; susceptibility describes the material’s response relative to it.

• DielectricCompared with: It describes magnetic response, the counterpart to permittivity’s electric response.

• Magnetic anisotropyCompared with: Permeability characterizes field response; anisotropy specifies how that response changes with direction.

• Skin effectRelated: Higher permeability generally reduces skin depth at a given frequency.

• DiamagnetismRelated: Negative susceptibility corresponds to permeability slightly below that of vacuum in SI materials.

• Magnetic shieldingRelated: High-permeability materials provide low-reluctance paths that divert magnetic flux around a protected region.

• Induction heatingRelated: Permeability changes field coupling and heating behavior in magnetic workpieces.

• FerriteRelated: Ferrite’s magnetic response matters in iron cores and other magnetic applications.

• Relative permittivityCompared with: It describes magnetic response, whereas relative permittivity describes electric response.

• Electromagnetic shieldingCompared with: Permeability-based magnetic shielding differs from the current-driven shielding of conductors.

• Induction furnaceRelated: It influences magnetic coupling and heating behavior, especially in ferromagnetic charges.

• Electrical propertiesCompared with: Permeability describes magnetic response, unlike permittivity's response to electric fields.

• Hopkinson effectNarrower topic: The effect is defined by a sharp rise in this material property.

• Toroid (electromagnetism)Related: A high-permeability core strengthens the field produced by a given coil current.