PIXIS

PIXIS cameras are fully integrated, low-noise cameras with deep cooling for quantitative scientific imaging and spectroscopy from UV-NIR. High-quantum efficiency and ultra-low-noise electronics make PIXIS cameras ideal for demanding low-light applications.

· ~120-1100 nm sensitivity
· -90℃ deep cooling
· Support for CCDs of varying sizes
· Flexible readout design

KURO

The KURO® is the first back-illuminated scientific CMOS camera. With high sensitivity and fast frame rates the KURO is optimal for applications such as hyperspectral imaging, astronomy, cold-atom imaging, quantum imaging, fluorescence spectroscopy, and high-speed spectroscopy

· >95% QE, back-illuminated sCMOS
· 1.5 e- (rms) read noise
· High UV sensitivity
· High speed
· Large pixels

KINTIX

The back-illuminated Kinetix Scientific CMOS (sCMOS) camera delivers the fastest speed and the largest field of view with the most balanced pixel size and near perfect 96% quantum efficiency.

· 498 Frames per Second
· 29.4 mm Diagonal Field of View
· 0.7 e- Read Noise
· 96% Quantum Efficiency
· 6.5 µm x 6.5 µm Pixel Area

RETIGA E7

The Retiga E7 brings long exposure imaging into the CMOS era, featuring major breakthroughs in thermal noise control that allows for exposures of over an hour! This compact CMOS has low dark noise and ultra-low dark current across a 7 megapixel sensor, resulting in high resolution detection of even the weakest signals. With data over a single USB3.2 Gen 2 cable, the Retiga E7 is simple, powerful and easy to integrate, representing the next generation of long exposure camera, following on from the highly successful CCD-based Retiga R-series.

· Capable of exposure times over 60 minutes
· Ultra low dark current <0.001 e–/p/s
· High resolution sensor (7 MP)
· True global shutter

PRIME BSI

The Prime BSI Scientific CMOS (sCMOS) camera delivers the perfect balance between high resolution imaging and sensitivity with an optimized pixel design and near perfect 95% Quantum Efficiency.

· 95% Quantum Efficiency
· 6.5 µm x 6.5 µm Pixel Area
· 1 e- Read Noise

PIXIS

PIXIS cameras are fully integrated, low-noise cameras with deep cooling for quantitative scientific imaging and spectroscopy from UV-NIR. High-quantum efficiency and ultra-low-noise electronics make PIXIS cameras ideal for demanding low-light applications.

· ~120-1100 nm sensitivity
· -90℃ deep cooling
· Support for CCDs of varying sizes
· Flexible readout design

KURO

The KURO® is the first back-illuminated scientific CMOS camera. With high sensitivity and fast frame rates the KURO is optimal for applications such as hyperspectral imaging, astronomy, cold-atom imaging, quantum imaging, fluorescence spectroscopy, and high-speed spectroscopy

· >95% QE, back-illuminated sCMOS
· 1.5 e- (rms) read noise
· High UV sensitivity
· High speed
· Large pixels

KINTIX

The back-illuminated Kinetix Scientific CMOS (sCMOS) camera delivers the fastest speed and the largest field of view with the most balanced pixel size and near perfect 96% quantum efficiency.

· 498 Frames per Second
· 29.4 mm Diagonal Field of View
· 0.7 e- Read Noise
· 96% Quantum Efficiency
· 6.5 µm x 6.5 µm Pixel Area

RETIGA E7

The Retiga E7 brings long exposure imaging into the CMOS era, featuring major breakthroughs in thermal noise control that allows for exposures of over an hour! This compact CMOS has low dark noise and ultra-low dark current across a 7 megapixel sensor, resulting in high resolution detection of even the weakest signals. With data over a single USB3.2 Gen 2 cable, the Retiga E7 is simple, powerful and easy to integrate, representing the next generation of long exposure camera, following on from the highly successful CCD-based Retiga R-series.

· Capable of exposure times over 60 minutes
· Ultra low dark current <0.001 e–/p/s
· High resolution sensor (7 MP)
· True global shutter

PRIME BSI

The Prime BSI Scientific CMOS (sCMOS) camera delivers the perfect balance between high resolution imaging and sensitivity with an optimized pixel design and near perfect 95% Quantum Efficiency.

· 95% Quantum Efficiency
· 6.5 µm x 6.5 µm Pixel Area
· 1 e- Read Noise