IEEE photonics journal · 2016 · 15 citations · 17 references
Internal Avalanche-free GainPhotonicsPhotoelectric SensorEngineeringPhysicsInfrared SensorApplied PhysicsShort-wave Infrared DetectorDetector PhysicPhotoelectric MeasurementInstrumentationLow Light LevelOptoelectronicsElectron OpticAmplifier Noise
We present the signal-to-noise performance of a short-wave infrared detector, which offers an internal avalanche-free gain. The detector is based on a similar mechanism as the heterojunction phototransistor and takes advantage of a type-II band alignment. Current devices demonstrate a noise-equivalent sensitivity of ~670 photons at 260 K and over a linear dynamic range of 20 dB. While this level of sensitivity is about an order of magnitude better than an ideal p-i-n detector attached to the same low-noise amplifier, it was still limited by the amplifier noise (~2600 electrons root mean square) due to the insufficient device gain. Performance comparison with other SWIR detector technologies demonstrates that the so-called electron-injection detectors offer more than three orders of magnitude better noise-equivalent sensitivity compared with state-of-the-art phototransistors operating at similar temperature.
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Optical properties of porcine skin dermis between 900 nm and 1500 nm
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