What Camera is Best for Time-Resolved Imaging?

Time-resolved imaging captures dynamic events at specific time intervals. Cameras used for these applications need to be fast and sensitive. Two main types of cameras are typically used for time-resolved imaging:

• Intensified cameras are ideal for time-gated imaging, where the camera can capture light within a specific time window.
• sCMOS cameras can capture fast events while offering excellent sensitivity and dynamic range.

Both types can be used for time-correlated single-photon counting (TCSPC) and other advanced time-resolved techniques.

👉 Find the best camera for your time-resolved imaging needs here.

How Do Scientific Cameras Enhance Fluorescence Imaging?

Scientific cameras, especially those equipped with high quantum efficiency (QE) sensors, are essential for capturing faint fluorescence signals in imaging applications. Fluorescence imaging is widely used for:

• Protein interaction studies using techniques like FRET (Förster Resonance Energy Transfer).
• Live-cell imaging in biological research.
• Environmental monitoring with fluorescence-based sensors.

To maximize fluorescence signal detection, scientific cameras often use sCMOS, CCD, or EMCCD sensors, depending on the application’s speed, sensitivity, and resolution requirements.

👉 Learn more about our fluorescence imaging solutions here.

What is the Advantage of Using an sCMOS Camera in Scientific Imaging?

sCMOS (scientific CMOS) cameras combine the best features of both CCD and CMOS sensors, offering:

• High sensitivity and low noise—perfect for detailed imaging in biological and material sciences.

• High-speed imaging capabilities—ideal for dynamic imaging applications like live-cell imaging and fluorescence microscopy.

• Wide dynamic range—allowing for accurate imaging in both bright and dark regions of the sample.

Due to these advantages, sCMOS cameras are increasingly used in scientific research, especially in applications requiring both high resolution and high speed.

👉 Check out our advanced sCMOS cameras here.

What is a High-Speed Scientific Camera?

A high-speed scientific camera is designed to capture rapid events at extremely fast frame rates—sometimes over 100,000 frames per second (fps). These cameras are used in a variety of applications such as:

• Flow visualization in fluid dynamics.

• High-speed photography for biological processes, like cellular dynamics.

• Material science for studying shockwaves or fast chemical reactions.

These cameras often use sCMOS or intensified sensors for high sensitivity and low-light performance.

👉 Discover our high-speed camera systems here.

What is the Difference Between a CCD and CMOS Camera?

CCD (Charge-Coupled Device) and CMOS (Complementary Metal-Oxide-Semiconductor) are two types of image sensors used in scientific cameras.

The key differences are:

• CCD sensors tend to have lower noise, making them ideal for low-light imaging in applications like astronomy and fluorescence microscopy.

• CMOS sensors offer faster readout speeds and lower power consumption, which are advantageous for high-speed imaging in dynamic experiments.

Both types are available in scientific-grade cameras, and the choice depends on factors such as application requirements and imaging conditions.

👉 Find the right sensor for your needs here.

What is a Scientific Camera?

A scientific camera is a high-performance imaging system designed for precise and reliable measurements in research and industrial applications. These cameras are typically used in fields such as:

• Life sciences (e.g., microscopy, fluorescence imaging).

• Physics (e.g., particle imaging, spectroscopy).

• Astronomy (e.g., astrophotography, telescopic imaging).

Scientific cameras differ from standard consumer cameras by offering high sensitivity, low noise, and fast acquisition rates, which are essential for capturing complex phenomena in environments with low light levels or rapid events.

👉 Explore our range of scientific cameras here.