Scientific CMOS (sCMOS) Cameras | Scientific Imaging Solutions

Scientific CMOS (sCMOS) cameras are designed for scientific research, laboratory imaging and applications requiring accurate image capture in low-light conditions.

Scientific CMOS technology combines high-resolution imaging with low readout noise and high frame rates, making it suitable for applications where capturing fine image detail and subtle light signals is important.

The Gloria series offers a range of scientific cameras with different sensor resolutions, pixel sizes and frame rates to suit a variety of research and imaging requirements.

Applications include fluorescence microscopy, cell biology, spectroscopy, quantum physics, cold atom research, astronomy and materials science.

Available in several configurations, the Gloria sCMOS camera range provides options for research laboratories, universities and scientific facilities looking for specialised imaging equipment.

What is a Scientific CMOS (sCMOS) Camera?

A Scientific CMOS (sCMOS) camera is an imaging device developed for scientific and research applications where image quality, sensitivity and measurement accuracy are important.

Unlike cameras designed for general photography or conventional video recording, sCMOS cameras are intended for specialised imaging environments, including applications involving low light levels, fluorescence signals and fast-moving processes.

Important camera characteristics include:

• Quantum efficiency (QE): Indicates how effectively a sensor converts incoming photons into an electrical signal.

• Readout noise: Influences the camera's ability to distinguish weak signals from background noise.

• Image resolution: Determines the level of detail captured in each image.

• Pixel size: Influences light collection and image characteristics.

• Frame rate: Determines how many images can be captured per second.

• Cooling: Helps manage sensor temperature during imaging, depending on the camera configuration.

• Data transfer: Determines how image data is transferred to a computer or storage system.

The most suitable camera depends on the imaging technique, light conditions, required resolution and research objectives.

Gloria sCMOS Camera Selection Guide

The Gloria series includes several models with different imaging characteristics to suit specific scientific applications.

Frame rates and specifications are model-dependent. Refer to individual product specifications for operating conditions and available configurations.

Gloria Scientific CMOS Camera Range

Explore the available Gloria sCMOS models to compare their specifications and identify a suitable camera for your research application.

Gloria 6504 – Scientific CMOS Camera

The Gloria 6504 is designed for scientific imaging applications requiring a combination of image resolution and frame rate.

Gloria 1605 – Scientific CMOS Camera

The Gloria 1605 features larger 16 μm pixels and is designed for applications involving low-light imaging and the detection of faint optical signals.

Gloria 1104 – Scientific CMOS Camera

The Gloria 1104 offers 11 μm pixels and a larger sensor format, making it an option for applications requiring a wider field of view.

Gloria 4.2 – Scientific CMOS Camera

The Gloria 4.2 is designed for scientific imaging applications including life sciences, fluorescence microscopy and quantum physics research.

Applications of Scientific CMOS Cameras

Scientific CMOS cameras are used across a range of research and laboratory environments. Camera selection will depend on the imaging technique, light conditions and the type of data required.

1. Life Sciences and Fluorescence Microscopy

sCMOS cameras can be used in biological research and microscopy applications requiring the capture of fluorescence signals and cellular activity.

Typical applications include:

• Cell biology research

• Fluorescence microscopy

• Live-cell imaging

• Biological sample observation

• Cellular activity analysis

2. Quantum Physics and Cold Atom Research

Scientific imaging is an important part of experimental physics, particularly when observing and analysing optical signals and atomic behaviour.

Applications include:

• Cold atom research

• Quantum physics experiments

• Optical detection

• Low-light scientific imaging

• Experimental physics research

3. Spectroscopy and Optical Detection

sCMOS cameras can be integrated into optical measurement and spectroscopy systems to capture image data for analysis.

Applications include:

• Spectral imaging

• Optical signal detection

• Laboratory spectroscopy

• Scientific instrumentation

• Light distribution analysis

4. Astronomy and Astrophotography

Scientific CMOS cameras are used in astronomical imaging applications where sensor sensitivity, image resolution and field of view are important considerations.

Applications include:

• Astronomical observation

• Faint celestial object imaging

• Optical astronomy research

• Scientific image acquisition

5. Materials Science and Research

Scientific imaging can support materials research by allowing researchers to capture and analyse optical information during experimental investigations.

Applications include:

• Materials characterisation

• Optical measurement

• Laboratory research

• Experimental imaging

• Material behaviour analysis

Choosing Between sCMOS and Other Scientific Camera Technologies

Different scientific camera technologies are designed to meet different imaging requirements.

Scientific CMOS (sCMOS) and Electron-Multiplying CCD (EMCCD) cameras are both used in specialised scientific imaging, particularly in applications involving low light levels.

The appropriate technology will depend on factors such as:

• Available light levels and signal strength

• Required quantum efficiency

• Readout noise requirements

• Image resolution

• Frame rate

• Sensor size and field of view

• Exposure time

• Cooling requirements

• Data acquisition and software compatibility

For applications involving extremely weak optical signals, specialised EMCCD systems may also be worth considering. For other applications, sCMOS may provide a suitable combination of image resolution, acquisition speed and sensitivity.

The best choice should be based on the specific imaging requirements rather than a direct comparison of technology types alone.

Scientific Imaging Solutions from Hylec Controls

Hylec Controls supplies specialised imaging and measurement equipment for research laboratories, universities and industrial applications.

Our team can assist with identifying a suitable Gloria sCMOS camera based on your application, imaging requirements and equipment configuration.

When enquiring, it is helpful to provide information about:

• Your research or imaging application

• The type of sample or subject being imaged

• Available lighting conditions and signal levels

• Required image resolution

• Desired frame rate

• Exposure time requirements

• Sensor cooling requirements

• Software and system integration requirements

Contact Hylec Controls to discuss your scientific imaging requirements or request a quotation for the Revealer Gloria sCMOS camera range.