The Phantom KT840 high-speed camera delivers exceptional scientific imaging performance with a balance of resolution, light sensitivity and workflow efficiency. Built around a 2560 × 1664 back side illuminated (BSI) sensor with 4.2 Mpx resolution, it provides the increased quantum efficiency and low-noise characteristics needed for capturing fast events in challenging lighting conditions. At full resolution, the KT840 records 1,850 frames per second, supplying accurate data for applications such as fluid dynamics, biomechanics, microfluidics, projectile motion and impact physics.

It offers significantly higher frame rates at reduced resolutions, achieving 222,220 fps at 1024 × 32 when using the FAST option. Binned modes further expand performance capabilities by combining pixels to raise sensitivity and frame rates while optimising aspect ratios for scientific analysis. In binned configurations such as 1280 × 832 and below, the KT840 reaches up to 115,940 fps, with a peak of 222,220 fps when FAST is enabled. A minimum exposure time of 450 nanoseconds helps minimise motion blur during extremely rapid events.

A programmable I/O system supports precise synchronisation and triggering, allowing seamless integration with DAQ systems, external sensors and multi-camera setups. Features such as Extreme Dynamic Range help manage bright events, while image based auto triggering, multi Cine recording and continuous acquisition through PCC software streamline high-speed workflows.

Weighing 3.2 kg, the KT840 compact design fits easily into constrained laboratory spaces or detailed experimental rigs. It supports both field and laboratory operation through on-camera controls, removable CF Express media for untethered recording and a 10 Gb Ethernet interface for rapid control and data transfer. The camera performance is verified to EMVA 1288 standards, including a QE×FF of 88.7 percent in its monochrome configuration, ensuring reliable metrics for scientific research.

The KT840 provides high resolution output, sub microsecond exposures and access to unprocessed image files for users who require direct control over correction workflows. It is compatible with a wide range of scientific imaging platforms and analysis tools, supporting tasks such as stress and strain analysis, 2D and 3D DIC, materials research, high speed microscopy, drop testing, precision machining studies and impact characterisation.

Accessories such as lens mounts, CF Express media, I/O cables and a protective case are available to support specific setups. The Phantom software suite including PCC, PCA and an SDK for Python, MATLAB and LabVIEW enables full camera control, data conversion and advanced motion analysis.

Overall, the Phantom KT840 provides high speed performance, low light capability and workflow flexibility, making it a powerful solution for scientific imaging in both laboratory and field environments.

Droplet Analysis/PIV
Track particle movement in fluids to analyse velocity fields and flow patterns.

Digital Image Correlation (DIC):
Measure full-field deformation, strain, and displacement for material testing and structural analysis.

Life Sciences and Biomechanics:
Study biological movements and physiological processes to support medical and biomechanics research.

Material Testing:
Capture how materials respond to stress, fracture, and extreme forces for engineering and design improvements.

Ballistics research:
With high light sensitivity to eliminate motion blur and incredibly high frame rates, it makes it perfectly suited to ballistics e.g. gunshot analysis or explosives etc.

Automotive:
Analyse crash tests, component motion, and vehicle dynamics to support safety and performance evaluations.

Combustion:
Combustion applications often have unique difficulties that need to be overcome. Aside from being exceptionally fast events they often have lighting issues as they quickly fluctuate between being very dark and very bright. Phantom cameras have features that aid researchers in dealing with these issues.

Microfluidics:
Visualise fluid flow at the microscale, aiding research in biotechnology, chemistry, and physics.