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The ability of SWIR InGaAs Camera to capture images based on localized temperature variations is made feasible by the fact that all objects with temperatures greater than absolute zero (0K) will emit thermal emissions that can be detected from the mid- and long-wave infrared (MWIR/LWIR) spectral bands.
The radiation of interest in s SWIR InGaAs Camera is different in that it is closer to the visible spectrum yet still allows temperature monitoring, typically exceeding 100 °C. Due to their ability to operate in wavebands that are undetectable to both MWIR/LWIR thermal imaging and conventional optics, SWIR cameras have carved out a special place for themselves in the scientific and industrial arenas.
The Global SWIR InGaAs Camera market accounted for $XX Billion in 2023 and is anticipated to reach $XX Billion by 2030, registering a CAGR of XX% from 2024 to 2030.
Selected InGaAs focal plane arrays with low dark current and low faulty pixel count are used by the Photonic Science Cooled VGA SWIR InGaAs Camera.
The SWIR InGaAs Camera enables reproducible acquisition for accurate metrology measurements in the SWIR band because of its effective cooling and steady offset. Ethernet over Gigabit and Camera Link Easy integration into current systems is made possible through a vision compliant interface.
For integration into certain instruments or systems, OEM versions are offered with unique form factors and cooling choices. Key Elements Digitization at 14 bits and picture processing at 16 bits. Read out noise down to about 30 electrons on average.>200 frames per second with ROI.
Outstanding linearity response to different intensities and/or exposures Camera Link and Gigabit Ethernet interface. Software choices: Lab view VI’s Applications and the SDK kit.
Passive cooling options are available: inspection of semiconductors. handheld SWIR vision improvement.
The C-RED family of SWIR InGaAs Camera are extremely quick and low noise, operating at 600 frames per second with less than 60 electron readout noise. In order to do this, a high resolution 640 x 512 InGaAs PIN photodiode detector with a 15 m pixel pitch and an electronic shutter with integration pulses under 5 s is incorporated.
The C-RED 2 opens up new opportunities for science, research, and business. It was created for high-end SWIR applications in low light. With an expanded wavelength (from 1.4 to 2.0 m) and a quantum efficiency of over 70%, the C-RED 2 ER enables even deeper infrared and creates new opportunities for astronomy, the life sciences, and business
