Linked from

The 24 pages that link to Photodetector, each with the reason it gives.

• SemiconductorRelated: Semiconductor absorption makes compact, fast light-sensitive devices possible.

• Band gapRelated: Its spectral response depends on which photon energies can cross the gap.

• Fiber-optic communicationRelated: It turns arriving optical pulses back into an electrical data stream.

• ExcitonRelated: Exciton dissociation can turn absorbed photons into mobile charge carriers for detection.

• SpectrophotometryRelated: It records the light intensity emerging from the sample.

• AbsorbanceRelated: Absorbance calculations depend on comparing detector signals with and without the sample.

• SpectrophotometerRelated: It converts transmitted light into the signal used to calculate absorbance.

• Optical communicationRelated: At the receiver, it converts arriving modulated light back into an electrical form.

• Laser rangefinderRelated: The detector registers returned laser light so electronics can determine its arrival or phase.

• Semiconductor heterostructureRelated: Band offsets and layer thicknesses can tailor its absorption and carrier collection.

• SpectrometerRelated: It turns the separated light reaching each position into measurable data.

• Molybdenum disulfideRelated: MoS₂'s light-sensitive band structure supports thin, wavelength-responsive photodetectors.

• Zhores AlferovRelated: Semiconductor heterostructures allow photodetectors to be tailored for efficient light absorption.

• Optical spectrometerRelated: Detectors turn separated or modulated light into measurable signals.

• PhotonicsRelated: Photodetectors complete optical links by turning received light into measurable current.

• AutocollimatorRelated: Electronic autocollimators use it to locate the returning image precisely.

• Optical computingRelated: Many optical computers rely on detection to pass results into electronic circuits.