Linked from

The 14 pages that link to Hall effect, each with the reason it gives.

• Electric chargeRelated: Its sign reveals the type of mobile charge carriers in a material.

• Lorentz forceRelated: Magnetic deflection of charge carriers separates charge across the material.

• Drude modelRelated: The classical model predicts a Hall response from the charge and motion of its carriers.

• MagnetometerRelated: Hall-effect sensors infer magnetic-field strength from a voltage generated inside the sensing material.

• P-type semiconductorRelated: Its voltage polarity can identify holes as the dominant carriers.

• MagnetostaticsRelated: Hall measurements use a known magnetic field to determine charge-carrier properties.

• Integer quantum Hall effectNarrower topic: The quantum effect is the low-temperature, strong-field quantized regime of this phenomenon.

• Free electron modelRelated: Its carrier-sign and density predictions can be compared with the model’s electron assumptions.

• Klaus von KlitzingNarrower topic: The quantum Hall effect is the low-temperature, strong-field regime of this familiar transverse-voltage phenomenon.

• Electron mobilityRelated: Hall measurements can estimate carrier mobility alongside carrier concentration.

• Electrical resistivity and conductivityRelated: Hall measurements distinguish carrier density and type from conductivity alone.

• Magnetic sensorRelated: Hall-effect sensors use this transverse voltage to measure field strength or detect nearby magnets.

• Magnetic techniquesRelated: Hall sensors turn magnetic fields into electrical signals for detection and positioning.

• Methods in magnetismRelated: Hall probes convert this voltage into a practical measurement of magnetic field.