Kynetix Scientific CMOS Camera > Photometrics

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 95% quantum efficiency.

* 500 Frames per Second

* 29.4 mm Diagonal Field of View

* 1.2 e- Read Noise

* 95% Quantum Efficiency

* 6.5 µm x 6.5 µm Pixel Area

Key Features

Extreme Speed 

Taking advantage of an 8-bit readout mode, the Kinetix sCMOS delivers a tremendous 500 frames per second (fps), full frame with a 29.4 mm diagonal field of view.

The optimized line time allows the speed to significantly outperform typical sCMOS devices, delivering over 5000 megapixels/second – over a 10-fold improvement.

Large Field Of View 

The 29.4 mm square sensor of the Kinetix is designed to increase throughput, maximize the amount of data captured in a single frame and take full advantage of new, larger field of view microscopes.

At 29.4 mm diagonal, the Kinetix sensor has a 2.4x larger imaging area than typical sCMOS cameras allowing the user to significantly speed up data acquisition.

High Sensitivity 

The Kinetix back-illuminated sCMOS camera achieves a near-perfect 95% quantum efficiency.

By bringing the light in from the back of the sensor, photons land directly onto the light receiving surface, maximizing light collecting capability.

The Kinetix combines 95% quantum efficiency with a low 1.2 e- read noise to deliver the most sensitive sCMOS camera at 500 frames per second.

High Resolution 

The Kinetix features 6.5 µm x 6.5 µm pixels, the accepted standard for most live cell applications using 40x and 60x magnification.

This pixel size provides highly detailed images across the imaging plane and is most suitable for the broadest range of microscope objectives.

Superior Background Quality

The Kinetix features Pattern Noise Reduction Technology and Correlated Noise Reduction Technology to ensure that it delivers clean, pattern-free images with minimal pixel defects, delivering improved image quality in low light conditions.