Linked from

The 29 pages that link to Dielectric, each with the reason it gives.

• Electric fieldRelated: Dielectrics modify fields inside capacitors and other materials.

• CapacitorRelated: A dielectric between capacitor conductors increases capacitance and limits charge flow.

• ElectrostaticsRelated: Its polarization changes the field and capacitance of electrostatic systems.

• CapacitanceRelated: Polarization changes the field and raises capacitance for a fixed geometry.

• Electrical insulatorRelated: Insulators used in electric fields are commonly described by their dielectric behavior.

• MicaRelated: Mica acts as a dielectric in capacitors and other electrical components.

• Electrical insulationRelated: The term highlights the field response of materials used to separate charged regions.

• AmberRelated: Amber's insulating nature helps localized charge persist on its surface.

• Coaxial cableRelated: The dielectric separates the conductors and affects capacitance and signal speed.

• Electric dipoleRelated: Microscopic dipoles in dielectrics contribute to their macroscopic polarization.

• Submarine power cableRelated: The cable dielectric separates conductors and withstands the voltage across them.

• Parallel-plate capacitorRelated: Filling the gap with a dielectric increases capacitance by reducing the internal field for fixed charge.

• Leyden jarRelated: The glass separates the coatings and strengthens the jar’s charge storage.

• AnodizingRelated: Aluminum oxide is insulating, so its growing film affects current and process control.

• Electrolytic capacitorRelated: The capacitor’s oxide layer serves as the dielectric between its electrodes.

• FaradRelated: A dielectric changes the capacitance a capacitor can provide in farads.

• Electrical connectorRelated: Insulating bodies separate contacts and prevent unintended current paths.

• Variable capacitorRelated: The material between the plates influences capacitance alongside their geometry.