sCCD Series
Product Introduction
The sCCD series is designed for high-sensitivity, low-noise spectroscopy and weak-signal imaging applications. It uses high-performance Teledyne e2v CCD devices such as the CCD261, delivering high quantum efficiency and low readout noise across the 300–1000 nm spectral range. This makes it well suited for Raman spectroscopy, photoluminescence and fluorescence detection, hyperspectral imaging, and other demanding low-light scientific workflows. A typical configuration combines 15 µm pixels with 2048 × 264 resolution, balancing photon collection capability with spectral resolution.
The camera integrates TEC cooling with closed-loop temperature control and can reduce the sensor temperature by approximately 40 °C below ambient. An anti-condensation optical structure helps maintain stable performance and suppress dark current during low-temperature and long-exposure operation. The platform supports 8-bit / 16-bit data output with built-in buffer memory, and provides USB3.0 and GigE interfaces to support continuous acquisition and reliable long-duration experimental workflows.
It supports free-running, software trigger, hardware trigger, and external timing synchronization. Bundled with ToupView, CLView, and cross-platform SDK support for Windows/Linux and C/C++/C#/Python/MATLAB workflows, the series is suitable for system integration and custom development.
Product Features
- High-sensitivity Teledyne e2v CCD devices such as CCD261, optimized for spectroscopy and weak-signal imaging
- Spectral range: 300–1000 nm, with quantum efficiency up to 95% @ 800 nm
- 2048 × 264 resolution with 15 µm pixel size and an effective sensor area of approximately 30.7 mm × 4.0 mm
- Low readout noise down to 3e- rms for weak-signal detection
- Global shutter CCD architecture suitable for synchronized Raman and hyperspectral acquisition
- TEC cooling with closed-loop temperature control, approximately 40 °C below ambient
- Anti-condensation optical structure for stable low-temperature and long-exposure operation
- USB3 / GigE dual interface for flexible system integration
- 8-bit / 16-bit data output with a built-in 512 MB buffer
- Exposure time up to 60 minutes for long-exposure scientific imaging
- Software binning modes: 2×2, 3×3, and 4×4
- Operating temperature: -30 °C to +45 °C; storage temperature: -40 °C to +60 °C; humidity: 0–95%
- Bundled with ToupView and CLView, with SDK support for C, C++, C#, Python, LabVIEW, and MATLAB
- CE/FCC compliant
Product Models
Teledyne e2v sCCD (Area Array) | QE up to 95% @ 800 nm, 300–1000 nm, TEC Cooling (ΔT ≈ 40 °C), USB3/GigE, for Raman/Fluorescence/Hyperspectral Imaging
| Model | Sensor / Size | Resolution | Pixel Size | Shutter | Frame Rate | Interface | Dynamic Range |
Action |
|---|---|---|---|---|---|---|---|---|
| sCCD01AM |
E2V CCD261
1.9" (30.97 mm) | 30.7 mm × 4.0 mm
|
0.54 MP (2048×264) | 15 µm × 15 µm | Global Shutter |
- @ 2048 × 264
|
USB3 / GigE |
-
|
View Details |
Package Contents #
Standard kit and packing information for the sCCD01AM Series thermoelectrically cooled sCCD scientific cameras.
Standard Items in the Case
- Camera body (thermoelectrically cooled sCCD scientific camera)
- Power adapter (input: AC 100–240 V 50 Hz/60 Hz, output: DC 19 V 4 A)
- I/O cable (7-pin cable or extension cable)
- USB 3.0 and GigE cables
- Lens (optional)
Product Dimensions #
Mechanical dimensions reference for the sCCD01AM Series thermoelectrically cooled sCCD scientific cameras.
Frequently Asked Questions
Explore essential knowledge about scientific-grade CCD cameras.
Advantages: sCCD cameras offer exceptional quantum efficiency, excellent linearity, and extremely low read noise—perfect for spectroscopy, astronomy, and high-precision microscopy.
Limitations: They typically read out more slowly, draw more power, and cost more to manufacture than sCMOS systems.
In-Depth Product Insights
CCD Architecture and Operating Principles
CCD sensors comprise arrays of capacitors that shift accumulated charge line by line after each exposure, converting the charges into voltage outputs. This analog process yields ultra-low noise and excellent uniformity.
Outstanding Sensitivity and Stability
Large full-well capacity and minimal readout circuitry deliver exceptional signal-to-noise ratio and quantum efficiency (QE), enabling the detection of faint signals such as fluorescence, spectral emissions, and astronomical objects.
Readout Speed and Architecture Choices
Scientific CCDs typically offer adjustable readout rates from 0.1 to 20 MHz to meet diverse workflow demands. Full-frame designs deliver the highest QE, frame-transfer sensors enable rapid buffering, and interline architectures mitigate smearing.
Deep Cooling and Dark Current Control
sCCD systems often integrate thermoelectric (TE) or liquid-nitrogen cooling to suppress dark current, boost SNR, and ensure stability for long exposures or low-light conditions.
High Dynamic Range and Linearity
CCD technology supports highly linear, wide-dynamic-range imaging—ideal for grayscale quantification, spectral analysis, and any workflow that demands precise high dynamic range performance.
Key Application Areas
How scientific-grade CCD cameras empower advanced research and industry.
Astronomical Imaging
Ultra-low noise and high quantum efficiency make sCCDs ideal for deep-sky observation, planetary imaging, and spectral surveys, supporting long exposures that capture faint starlight.
Fluorescence & Spectral Microscopy
High sensitivity and linear response suit FRET, Raman spectroscopy, fluorescence lifetime imaging, and other quantitative microscopy techniques.
High Dynamic Range Imaging
Wide dynamic range and high bit depth capture bright and dark detail simultaneously—ideal for materials inspection, quality control, and HDR imaging.
X-ray & Neutron Imaging
Pairing high quantum efficiency with scintillators enables high-quality X-ray and neutron imaging for non-destructive testing and materials science.
Cold Atom & Quantum Imaging
Extremely low noise and high sensitivity—combined with deep cooling—detect single-photon events for BEC, ion-trap, and quantum-dot experiments.
Spectral Analysis
Exceptional linearity and stability, combined with spectrometers, enable precise measurements for chemical analysis, environmental monitoring, and more.
sCCD Technology Highlights
- Ultra-low read noise
- High quantum efficiency (QE > 95%)
- Excellent linear response
- Robust long-exposure performance
- High dynamic range imaging
- Deep cooling capability
- Single-photon detection
- Consistently stable image quality