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InAs photodiode
Indium arsenide InAs/InAsSb uncooled infrared photovoltaic detector 2-5.5um PVA series
The PVA series is a non cooled infrared photovoltaic detector based on InAs1 xSbx alloy. This device has a temperature stability of up to 300 ℃ and high mechanical durability, and is free of mercury and cadmium, meeting RoHS requirements
Product PN# product name Photosensitive area response wavelength range peak wavelength Other parameters
PVA-3-0.1×0.1-TO39-NW-90 InAs Photovoltaic Detector Infrared Non Cooling Non Immersion 2.15-3.5um 0.1×0.1mm^2 2.15-3.5μm 2.95μm Add Inquiry
Indium arsenide InAs infrared photovoltaic detector 3-3.35um (P10090 series/P7163)
InAs indium arsenide photovoltaic detectors, like PbS lead sulfide photoconductive detectors, have high sensitivity in the infrared region around 3 μ m, low noise, high speed, and high reliability. This series is a new InAs photovoltaic detector series that provides lower noise than our traditional products. Xiaoxiao Photon offers various types to choose from, including non cooled, thermoelectric cooled, and high-performance liquid nitrogen cooled.
Product PN# product name Spectral response Peak wavelength λ p Cut off wavelength λ c Other parameters
P10090-01 Indium arsenide InAs photovoltaic detector 3.35um 3.35um 3.35μm 3.65μm Add Inquiry
InAs/InAsSb optical immersion infrared uncooled photovoltaic detector 2.0-5.5um PVIA series
The PVIA series is a non cooled infrared photovoltaic detector based on InAs1 xSbx alloy, which enhances the performance of the detector through optical immersion. This device has a temperature stability of up to 300 ℃ and high mechanical durability, and is free of mercury and cadmium, meeting RoHS requirements.
Product PN# product name Optimal wavelength λ opt photosensitive area relative response intensity D * (λ peak) Other parameters
PVIA-3-1×1-TO39-NW-36 Uncooled InAs Indium Arsenide Infrared Photovoltaic Detector 2.15-3.5um 2.15±0.2μm 1×1mm^2 2.95±0.3 cm·Hz1/2/W Add Inquiry
Indium arsenide InAs/indium arsenide antimony InAsSb optical immersion infrared photovoltaic detector two-stage TE cooling 2.0-5um PVIA-2TE series
The PVIA-2TE series is a two-stage TE cooled infrared photovoltaic detector based on InAsSb alloy. This device has a temperature stability of up to 300 ℃ and high mechanical durability, and is free of mercury and cadmium, meeting RoHS requirements. Equipped with a 3 ° wedge-shaped sapphire (wAl2O3) window to prevent unnecessary interference.
Product PN# product name Spectral response Photographic specifications Other parameters
PVIA-2TE-3-1×1-TO8-wAl2O3-36 Indium Arsenide InAs Photoimmersion Infrared Photovoltaic Detector with Two Stage TE Cooling 2-5.5um 2.0-5.5um 1x1mm Add Inquiry
InAs/InAsSb infrared photovoltaic detector with two-stage TE cooling 2.0-5.5um PVA-2TE series
The PVA-2T series is a two-stage TE cooled infrared photovoltaic detector based on InAs1-x Sbx alloy. This device has a temperature stability of up to 300 ℃ and high mechanical durability, and is free of mercury and cadmium, meeting RoHS requirements. Equipped with a 3 ° wedge-shaped sapphire (wAl2O3) window to prevent unnecessary interference.
Product PN# product name Spectral response Photographic specifications Other parameters
PVA-2TE-3-0.1×0.1-TO8-wAl2O3-70 InAs infrared photovoltaic detector two-stage TE cooling 2-5.5um 2.0-5.5um 0.1x0.1mm Add Inquiry
InAs/InAsSb II type superlattice T2SL photoconductive (PC)/photovoltaic (PV) detector 1.6-15um
Type II superlattice two-stage thermoelectric cooled infrared photodetector with excellent parameters. 3 ° wedge-shaped sapphire window (wAl2O3) prevents unnecessary interference effects. Various MWIR and LWIR type II superlattice (T2SL) photoconductive (PC) and photovoltaic (PV) detectors under development can operate at room temperature or under thermoelectric cooling. These detectors can achieve excellent parameters without the need for low-temperature cooling (LN2). They do not contain mercury or cadmium and comply with the RoHS directive. Superlattice materials are multilayer films formed by alternating growth of two different components in thin layers ranging from several nanometers to tens of nanometers, maintaining strict periodicity. In fact, they are specific forms of layered fine composite materials. Superlattice materials are classified into excellent, second, and third types of superlattices based on the type of heterojunction that forms them. Superlattices can be divided into the following types: 1. Constituent superlattices, 2. Doped superlattices, 3. Multidimensional superlattices, and 4. Strain superlattices