sCCD01AM Scientific Camera
Product Introduction
The sCCD01AM uses the E2V CCD261 scientific CCD sensor and provides 2048 × 1 output with 15 µm × 15 µm pixels. Covering the 300–1000 nm spectral range with quantum efficiency up to 95% @ 800 nm, it is built for Raman spectroscopy, low-light fluorescence imaging, hyperspectral imaging, and other weak-signal scientific applications. The camera combines 7 e-/ADU conversion gain, 86.5 dB dynamic range, 22e- rms readout noise, 459 ke- full well capacity, a 512 MB buffer, and exposure times up to 60 minutes. With USB3 interface support, 8-bit / 16-bit output, and cooling up to 55 °C below ambient, it supports stable long-duration acquisition and precise scientific imaging workflows.
Key Features
- E2V CCD261 scientific CCD image sensor optimized for spectroscopy and weak-light imaging
- Spectral range: 300–1000 nm with quantum efficiency up to 95% @ 800 nm
- 2048 × 1 output with 15 µm × 15 µm pixels and 30.7 mm × 4.0 mm sensor area
- 7 e-/ADU conversion gain, 86.5 dB dynamic range, 22e- rms readout noise, and 459 ke- full well capacity
- 56.6 dB maximum SNR with 184 e-/pixel/s @ -35 °C @ 2048 × 1 binning dark current
- Exposure time up to 60 minutes for long-exposure scientific imaging
- USB3 interface with 8-bit / 16-bit data output
- Built-in 512 MB (4 Gb) buffer for stable long-duration acquisition
- Cooling capacity up to 55 °C below ambient for reduced dark noise
- Powered by a 12 V / 5 A adapter and designed for laboratory integration
- Bundled with ToupView, CLView, LabVIEW, MATLAB, and SDK support for C, C++, C#, and Python
- Ideal for Raman spectroscopy, low-light fluorescence imaging, and hyperspectral imaging
Product Details
| Specifications | |
| Model | sCCD01AM |
| Sensor | E2V CCD261 |
| Sensor Type | CCD image sensor |
| Shutter Type | TBD |
| Color Type | Monochrome |
| Resolution | 2048 × 1 |
| Sensor Size | 30.7 mm × 4.0 mm |
| Sensor Diagonal | 1.9" (30.97 mm) |
| Pixel Size | 15 µm × 15 µm |
| Spectral Range | 300–1000 nm |
| Performance Parameters | |
| Frame Rate | 12 fps @ 2048 × 1 |
| Bit Depth | 8-bit / 16-bit |
| Memory | 512 MB (4 Gb) |
| Conversion Gain | 7 e-/ADU |
| Dynamic Range | 86.5 dB |
| Readout Noise | 22e- rms |
| Full Well Capacity | 459 ke- |
| SNR | 56.6 dB |
| Sensitivity | TBD |
| Dark Current | 184 e-/pixel/s @ -35 °C @ 2048 × 1 binning |
| Quantum Efficiency | 95% @ 800 nm |
| Dark Signal Non-Uniformity | TBD |
| Photo Response Non-Uniformity | TBD |
| Exposure Time Range | ≤60 mins |
| Gain Range | TBD |
| Interface Parameters | |
| GPIO | TBD |
| Lens Mount | — |
| Data Interface | USB3 |
| Data Format | 8-bit / 16-bit |
| Power Supply | Powered by a 12 V / 5 A power adapter |
| Cooling Capacity | 55 °C below ambient |
| Power Consumption | — |
| Physical Parameters | |
| Dimensions | 100 × 80 × 79.25 mm |
| Weight | 800 g |
| Environmental Parameters | |
| Operating Temperature | -20 °C to +45 °C |
| Operating Humidity | 0–95% |
| Storage Temperature | -40 °C to +60 °C |
| Storage Humidity | TBD |
| Other Parameters | |
| OS Support | Windows/Linux |
| Software | ToupView, CLView based on Delsa frame grabber, LabVIEW, MATLAB, etc. |
| SDK Support | C, C++, C#, Python |
| Certification | TBD |
Product Overview
sCCD01AM is a scientific-grade cooled camera built around the E2V CCD261 scientific CCD image sensor. It combines high quantum efficiency, low readout noise, long-exposure capability, and deep cooling for Raman spectroscopy, low-light fluorescence imaging, hyperspectral imaging, and other weak-signal scientific workflows.
- Scientific CCD Performance: 2048 × 1 effective resolution with 15 µm × 15 µm pixel size and a sensor area of 30.7 mm × 4.0 mm
- Scientific CCD Readout: Uses CCD image sensor architecture for stable weak-signal capture in Raman spectroscopy, hyperspectral imaging, and other precision scientific measurement workflows
- Flexible Data Interface: Compatible with USB3 interfaces, while image data output supports 8-bit / 16-bit to meet different system integration requirements
- Efficient Cooling System: Built-in high-efficiency cooling reduces the sensor temperature by approximately 55 °C below ambient, helping suppress dark current and thermal noise during long exposures
- Acquisition and Buffering: A built-in 512 MB (4 Gb) buffer and exposure times up to ≤60 mins support stable long-duration acquisition in low-light experiments
- Robust Durable Design: Overall dimensions of 100 × 80 × 79.25 mm with operating temperature range covering -20 °C to +45 °C , widely suitable for high-precision imaging tasks in demanding environments
- Software and Development Support: Bundled with ToupView, CLView based on Delsa frame grabber, LabVIEW, MATLAB, etc. and SDK support for C, C++, C#, Python on Windows/Linux platforms for scientific research and system integration
Key Performance Indicators
Effective Resolution
2048 × 1
Pixel Size
15 µm × 15 µm
Quantum Efficiency
Up to 95% @ 800 nm
Cooling Capacity
55 °C below ambient
Spectral Response Curve
Typical spectral response of sCCD01AM across the 300–1000 nm range
Professional Imaging Features
Spectral Imaging Optimization
The CCD261-based architecture is optimized for Raman spectroscopy, hyperspectral imaging, and related applications that demand high spectral sensitivity and stable weak-signal capture
Deep Cooling Technology
High-efficiency cooling achieves approximately 55 °C below ambient, significantly reducing dark noise for stable low-light and long-exposure imaging
Stable Scientific Readout
The CCD261-based readout path is optimized for stable, repeatable signal acquisition in spectroscopy and other precision scientific measurement systems
Low-Light Imaging
High quantum efficiency together with low readout noise and deep cooling enables high-quality imaging under extremely low illumination conditions
Typical Application Scenarios
Raman Spectroscopy
High sensitivity, low noise, and long-exposure support make the camera well suited to Raman spectrometer detection workflows
Hyperspectral Imaging
Broad spectral response and stable CCD output support hyperspectral data acquisition for materials analysis and related research tasks
Low-Light Fluorescence
Ultra-low noise characteristics capture weak fluorescence signals, ideal for biological imaging applications
Why Choose sCCD01AM
The sCCD01AM scientific-grade cooled CCD camera is purpose-built for high-end spectral analysis and low-light imaging. Its quantum efficiency of up to 95% @ 800 nm, deep cooling capability, low readout noise, and long-exposure support make it a strong choice for Raman spectroscopy, hyperspectral imaging, fluorescence detection, and other precision scientific applications. The robust mechanical design and comprehensive software ecosystem help ensure stable and reliable performance in demanding laboratory environments.
sCCD01AM Product Manual
PDF format, includes detailed technical specifications and dimensional structure
SDK Development Kit
Supports Windows, Linux, macOS and other platforms
3D Model Files
STEP format, for mechanical design integration
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