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 requiring high dynamic performance. The series covers 2–21 MP specifications with 4.5 µm pixels and typical spectral response of 300–1100 nm, effectively suppressing motion distortion and image smear.

The cameras provide USB3.0 and CoaXPress (CXP, model-dependent) high-speed links with built-in 1 GB image buffer, supporting 8/10/12-bit output. Frame rates can be further enhanced through ROI/windowing and 2×2 binning (model-dependent) to increase throughput. They support free-running, software/hardware triggering, and multi-camera synchronization, compatible with timing coordination of external light sources, motion stages, and other experimental equipment.

Bundled with ToupView and cross-platform SDK (Windows/Linux, C/C++/C#/Python) for easy system integration and secondary development. Selected models offer TEC-cooled versions to reduce dark current and improve 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)
  • Pixel size 4.5 µm, 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 up to hundreds of fps, supports ROI/windowing for further frame rate enhancement
  • Supports 2×2 binning (model-dependent), balancing sensitivity/resolution/frame rate
  • USB3.0 and CoaXPress (CXP) high-speed interfaces (model-dependent) for high-bandwidth data acquisition
  • Built-in 1 GB image buffer ensures stable output for high-speed/burst data streams
  • Image data formats: 8/10/12-bit, optional linear/HDR modes (model-dependent)
  • Trigger modes: Free-running, software trigger, external hardware trigger; supports multi-device timing synchronization
  • Rich I/O (model-dependent): Opto-isolated input/output and programmable GPIO for production line/experimental equipment integration
  • Optional TEC-cooled version: Typical ΔT ≈ 40 °C (below ambient), reduces dark current and thermal noise
  • 19 V adapter power supply, system power consumption < 25 W (model-dependent)
  • Environmental adaptation: -30 to 60 °C, 20–80% RH (non-condensing, model-dependent)
  • Provides Windows/Linux SDK (C/C++/C#/Python), compatible with ToupView/CLView
  • Supports on-site firmware upgrade, complies 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 CMOS cameras

A scientific CMOS (sCMOS) camera combines the strengths of CCD and CMOS technology, delivering ultra-low noise, high frame rate, wide dynamic range, and high quantum efficiency—ideal for scientific research and precision measurement.

  • Ultra-low read noise: sCMOS read noise approaches 1 e⁻, far outperforming traditional CCDs.
  • High frame rate: Parallel readout architecture supports 100 fps or higher.
  • Wide dynamic range: Captures bright and dark regions simultaneously with ratios up to tens of thousands to one.
  • Large field of view and high resolution: Suits high-resolution, wide-field imaging.

Most sCMOS sensors adopt a rolling shutter for high-speed line-by-line readout. Some support pseudo-global shutter via synchronized illumination for tear-free imaging.

They are used widely in biological microscopy, fluorescence imaging, fast object inspection, astronomy, X-ray imaging, cold atom research, and other precision-science scenarios.

EMCCD cameras excel in ultra-low light or long-exposure conditions.

sCMOS delivers greater value for high-resolution, high-speed imaging with low noise.

In-Depth Product Overview

sCMOS Sensor Architecture

Each pixel has its own amplifier and column ADC for parallel readout, enabling high-speed, high-SNR imaging. Dual gain channels and dual ADC designs further expand dynamic range and sensitivity.

Low Noise + Wide Dynamic Range

Typical sCMOS noise is < 2 e⁻ (30 fps) with dynamic range up to 50,000:1—far exceeding traditional CCDs.

Fast Readout & Versatility

Parallel readout supports >100 fps for capturing fast events such as cell motion, fluorescence lifetime studies, and plasma dynamics.

Low-Light Performance

Back-illuminated sCMOS sensors achieve >95% QE from UV to NIR, with low fixed-pattern noise and cooling down to −30 °C for astronomy and other needs.

Application Scenarios & System Value

Ideal for fluorescence microscopy, astronomy, cold atom research, X-ray imaging, materials inspection, and industrial microscopy—delivering high sensitivity, precision, and adaptability.

Key Application Areas

Representative sCMOS applications

sCMOS Technology Advantages Summary

  • Ultra-low read noise (<2 e⁻)
  • High frame rate (>100 fps)
  • Wide dynamic range (50,000:1)
  • High quantum efficiency (>95%)
  • Large FOV, high resolution
  • Cooling capability (−30 °C)
  • Parallel readout architecture
  • Adaptable to diverse research needs