Linked from

The 51 pages that link to Doping (semiconductors), each with the reason it gives.

• SemiconductorBroader topic: Dopants tune conductivity by supplying electrons or creating holes.

• Valence electronBroader topic: Dopant valence electrons create charge carriers that alter conductivity.

• Band gapRelated: Dopants add levels near the band edges without usually changing the host gap substantially.

• Integrated circuitRelated: Doped regions create the junctions and conductive paths used in integrated circuits.

• Light-emitting diodeRelated: Doping creates the p-type and n-type regions used to form an LED junction.

• SiliconRelated: Dopants turn nearly pure silicon into controllable n-type and p-type material.

• TransistorRelated: Doping creates the regions and channels that give transistor structures their behavior.

• Photovoltaic effectRelated: Doping creates the contrasting regions that commonly establish a separating junction field.

• Solar cellRelated: Doping creates the p-type and n-type regions used in many cells.

• P–n junctionRelated: Different dopants create the p-type and n-type regions that meet at the boundary.

• PhotodiodeRelated: Dopant profiles create the junction fields and carrier regions used in photodiodes.

• Silicon carbideRelated: Doping sets carrier type and concentration in SiC power-device regions.

• Bipolar junction transistorRelated: Different doping levels in emitter, base, and collector shape transistor operation.

• Gallium arsenideRelated: Dopants create the charge regions used in GaAs junctions and transistors.

• Point defectRelated: Substitutional dopants create point defects that supply charge carriers.

• Field-effect transistorRelated: Doping establishes the channel and junction regions used in common transistor structures.

• PhotovoltaicsRelated: Doping creates the p-type and n-type regions used to form many photovoltaic junctions.

• MetalloidRelated: Doping turns metalloid silicon into material for controlled electronic devices.

• Electron–hole pairRelated: Doping changes background carrier populations that interact with generated pairs.

• MOSFETRelated: Doping defines the source, drain, body, and channel behavior.

• Molecular diffusionRelated: Diffusion can move dopant atoms into semiconductor materials during device fabrication.

• Band theoryRelated: Impurity states shift carrier populations relative to the semiconductor’s bands.

• DiodeRelated: Different dopants create the p-type and n-type regions of a junction diode.

• GermaniumRelated: Dopants control germanium’s charge carriers and enable useful electronic components.

• Isomorphous substitutionCompared with: Doping often uses substitutional atoms, but targets electronic behavior rather than mineral-site chemistry.

• P-type semiconductorNarrower topic: P-type material is produced by adding acceptor dopants.

• Semiconductor device fabricationRelated: Doping establishes the conducting regions that form junctions and transistor channels.

• Depletion regionRelated: Dopant concentration sets the fixed charge density within the depleted region.

• Schottky barrierRelated: Doping controls depletion width and whether transport is mainly thermionic or tunneling.

• Schottky diodeRelated: Doping sets the carrier supply and influences the junction’s depletion region.

• Zinc sulfideRelated: Activators and impurities tune ZnS phosphor emission.

• Forward biasNarrower topic: Doping creates the p-type and n-type regions that give a junction its polarity.

• HeterojunctionRelated: Doping sets carrier populations and can shape fields near the interface.

• Junction transistorRelated: Doping creates the p-type and n-type regions used in junction transistors.

• Ohmic contactRelated: High doping near the interface can thin a barrier enough for efficient carrier flow.

• ArsineRelated: Arsine can introduce arsenic donors into silicon and other semiconductor materials.

• Semiconductor deviceRelated: Doping creates the carrier-rich regions used in many device structures.

• Silicon waferRelated: Dopant concentration and distribution are specified when silicon ingots become wafers.

• Vacancy defectRelated: Vacancies can act as electrically active defects alongside dopant atoms.

• Very-large-scale integrationRelated: Doping creates the regions needed for transistor channels, sources, and drains.

• Herbert KroemerRelated: Doping provides another way to control carriers, complementary to Kroemer’s band-structure design.

• Hydrogen tellurideRelated: Hydrogen telluride has been considered as a tellurium source in semiconductor processing.

• Leo EsakiRelated: Esaki’s junction required exceptionally heavy doping to make its barrier thin enough for tunneling.

• MicroelectronicsRelated: Doping creates the charge-carrier regions needed to form electronic devices on a chip.

• Crystallographic defectRelated: Substitutional defects supply charge carriers that tune semiconductor behavior.

• Metal–semiconductor junctionRelated: Doping changes depletion width and can make barrier tunneling more likely.

• Impurity (semiconductors)Related: Doping is the controlled use of impurities to set a semiconductor’s carrier concentration.

• Tin(IV) oxideRelated: Dopants can tune tin dioxide's conductivity for sensing and transparent-electrode applications.

• History of the transistorRelated: Doping creates the regions that let junction transistors control current.

• Parts-per notationRelated: Semiconductor dopant concentrations can be small enough to suit parts-per notation.