SS Series
Product Introduction
The SS series is built on GSPRINT high-frame-rate global shutter sCMOS sensors, balancing high resolution with high frame rates, specifically designed for industrial inspection, high-speed imaging, and scientific experiments in high-dynamic scenarios. The series covers 2–21 MP multiple specifications with 4.5 µm pixels, typical spectral response 300–1100 nm, effectively suppressing motion distortion and trailing.
The cameras provide USB3.0 and CoaXPress (CXP, model-dependent) high-speed links, built-in 1 GB image buffering, supporting 8/10/12-bit output. Through ROI/windowing and 2×2 binning (model-dependent), frame rate and throughput can be further enhanced. Supporting free-running, software/hardware triggering and multi-camera synchronization, suitable for timing coordination with external illumination, motion platforms and other experimental equipment.
Bundled with ToupView and cross-platform SDK (Windows/Linux, C/C++/C#/Python), facilitating system integration and secondary development. Some models provide TEC cooling versions for reducing dark current and improving low-light/short-exposure contrast.
Product Features
- Equipped with GSPRINT4521/4510/4502 high-speed global shutter CMOS image sensors
- Resolution coverage from 2048 × 1216 to 5120 × 4096 (2–21 MP)
- 4.5 µm pixels, sensor diagonal approximately 0.67″–1.86″ (model-dependent)
- Typical spectral response 300–1100 nm, covering visible to near-infrared
- Global shutter suppresses motion distortion, suitable for high-speed inspection and scientific imaging
- Full-frame rates reaching hundreds of fps, supporting ROI/windowing for further frame rate enhancement
- Supporting 2×2 binning (model-dependent), balancing sensitivity/resolution/frame rate
- USB3.0 and CoaXPress (CXP) high-speed interfaces (model-dependent), meeting high-bandwidth data acquisition requirements
- Built-in 1 GB image buffering, ensuring stable output of high-speed/burst data streams
- Image data formats 8/10/12-bit, optional linear/HDR operating modes (model-dependent)
- Trigger modes: free-running, software trigger, external hardware trigger; supporting multi-device timing synchronization
- Rich I/O (model-dependent): optically isolated input/output and programmable GPIO, facilitating integration with production lines/experimental equipment
- Optional TEC cooling version: typical ΔT ≈ 40 °C (below ambient), reducing dark current and thermal noise
- 19 V adapter power supply, overall power consumption < 25 W (model-dependent)
- Environmental adaptation: −30–60 °C, 20–80 %RH (non-condensing, model-dependent)
- Providing Windows/Linux SDK (C/C++/C#/Python), compatible with ToupView/CLView
- Supporting field firmware upgrade, compliant with CE/FCC/RoHS (model-dependent)
Product Models
Choose the best SS Series model for your application needs
| Model | Sensor | Resolution | Pixel Size | Frame Rate | Data Interface | Dynamic Range | Action |
|---|---|---|---|---|---|---|---|
| SS21MPA-U3-CXP |
GSPRINT4521-AVC (sCMOS)
23.04 mm × 18.432 mm
|
21.0 MP (5120×4096) | 4.5 µm × 4.5 µm |
TBD@5120×4096
TBD@2560×2048
|
USB3.0/CXP |
-
|
View Details |
| SS21MMA-U3-CXP |
GSPRINT4521-AVM (sCMOS)
23.04 mm × 18.432 mm
|
21.0 MP (5120×4096) | 4.5 µm × 4.5 µm |
TBD@5120×4096
TBD@2560×2048
|
USB3.0/CXP |
-
|
View Details |
| SS10MPA-U3-CXP |
GSPRINT4510-AVC (sCMOS)
20.736 mm × 9.792 mm
|
10.0 MP (4608×2176) | 4.5 µm × 4.5 µm |
TBD@4608×2176
TBD@2304×1088
|
USB3.0/CXP |
-
|
View Details |
| SS10MMA-U3-CXP |
GSPRINT4510-AVM (sCMOS)
20.736 mm × 9.792 mm
|
10.0 MP (4608×2176) | 4.5 µm × 4.5 µm |
TBD@4608×2176
TBD@2304×1088
|
USB3.0/CXP |
-
|
View Details |
| SS02MPA-U3-CXP |
GSPRINT4502-AVC (sCMOS)
9.21 mm × 5.47 mm
|
2.5 MP (2048×1216) | 4.5 µm × 4.5 µm |
TBD@2048×1216
TBD@1024×608
|
USB3.0/CXP |
-
|
View Details |
| SS02MMA-U3-CXP |
GSPRINT4502-AVM (sCMOS)
9.21 mm × 5.47 mm
|
2.5 MP (2048×1216) | 4.5 µm × 4.5 µm |
TBD@2048×1216
TBD@1024×608
|
USB3.0/CXP |
-
|
View Details |
Frequently Asked Questions
Learn more about scientific-grade CMOS camera expertise
- Ultra-low readout noise: sCMOS readout noise approaches 1e⁻, significantly better than traditional CCD
- High frame rates: Parallel readout architecture supports frame rates up to 100fps or higher
- Wide dynamic range: Can simultaneously image bright and dark regions with dynamic range reaching tens of thousands to one
- Large field of view and high resolution: Suitable for high-resolution large field of view imaging requirements
EMCCD cameras are better suited for extremely low light or long exposure applications.
sCMOS cameras offer better cost-effectiveness for high-resolution, high frame rate applications requiring low noise.
In-Depth Product Introduction
sCMOS Sensor Architecture
Each pixel is equipped with independent amplifiers and column-level ADCs, enabling parallel readout for high-speed, high signal-to-noise ratio imaging. Dual gain channels and dual ADC designs further enhance dynamic range and sensitivity.
Low Noise + Wide Dynamic Range
Typical sCMOS noise is less than 2 e⁻ at 30fps, with dynamic range reaching 50,000:1, significantly exceeding traditional CCD performance.
Fast Readout and Versatility
Parallel readout architecture supports high frame rates (greater than 100fps), suitable for high-speed event capture such as cell movement, fluorescence lifetime, plasma changes, and more.
Low Light Imaging Capability
Back-illuminated sCMOS sensors can achieve quantum efficiency greater than 95%, performing excellently from UV to near-infrared ranges, with low fixed pattern noise and cooling capabilities down to -30°C for astronomical observations.
Application Scenarios and System Value
Suitable for fluorescence microscopy, astronomical imaging, cold atom research, X-ray imaging, materials testing, industrial microscopy, and various scientific research and industrial fields, providing high sensitivity, high precision, and high adaptability system advantages.
Primary Application Areas
Applications of scientific cameras (sCMOS) across various fields
sCMOS Technical Advantages Summary
- Ultra-low readout noise (<2e⁻)
- High frame rates (>100fps)
- Wide dynamic range (50,000:1)
- High quantum efficiency (>95%)
- Large field of view high resolution
- Cooling capability (-30°C)
- Parallel readout architecture
- Multi-purpose scientific adaptability