sMAX16BM-U3-CL-GPS Scientific Camera

Product Introduction

The sMAX series is designed for low-light and long-exposure scientific imaging, covering sensor configurations including GSENSE2020 BSI, GSENSE4040, and GSENSE4040 BSI, offering high-resolution options from 2K×2K to 4K×4K. All models feature dual-stage TEC high-efficiency cooling structure, with sensor operating temperature approximately 40 °C below ambient, combined with anti-condensation optical structure to ensure image stability and cleanliness during low-temperature long-exposure applications.

The cameras support USB 3.0 / Camera Link high-speed data links and 16-bit data depth, providing research-grade functions such as temperature control, free-running/external triggering, and software/hardware binning. Some models can achieve exposure times up to 3600 s with GPS time synchronization, suitable for fluorescence microscopy, spectral measurement, astronomical observation, semiconductor inspection, and gene sequencing applications.

Windows / Linux SDK (C/C++/C#/Python) and supporting software such as ToupView/CLView are provided for secondary development and system integration.

Key Features

  • Dual-stage TEC high-efficiency cooling, typical temperature difference ΔT ≈ 40 °C (below ambient), supporting long-duration low-noise imaging
  • Built-in anti-condensation optical structure, effectively suppressing condensation under low-temperature and long-exposure conditions
  • Temperature-controllable design: sensor temperature stabilizes to set value in short time (sMAX04 typical ≈ 5 min)
  • Featuring GSENSE2020 BSI / GSENSE4040 / GSENSE4040 BSI sensors with high QE (up to 95% @ 560 nm; GSENSE4040 typical 74% @ 600 nm; GSENSE4040 BSI typical 90% @ 550 nm)
  • Maximum resolution 4096 × 4096, covering 2K×2K to 4K×4K multiple specifications
  • Support for 8/12/16-bit (some models include 11-bit / Global Reset / HDR modes), enhancing weak signal layering and dynamic range
  • USB 3.0 / Camera Link high-speed data interface (some models with dual interfaces), meeting high-bandwidth transmission requirements
  • Free-running and external trigger modes: supporting single-frame/multi-frame triggered acquisition and multi-device synchronization
  • Optional -GPS models: built-in GPS timing module supporting UTC absolute time synchronization and multi-camera sync (model dependent)
  • Software and hardware combined binning: software 2×2/3×3/4×4, some models support FPGA hardware 2×2
  • Rich digital I/O: 1 opto-isolated input, 1 opto-isolated output, 2 configurable GPIOs (model dependent)
  • Long exposure capability: up to 3600 s (model dependent; e.g., sMAX16 series), suitable for extremely low-light applications
  • Flexible lens mount: C-mount / M54 × 0.75 (model dependent), convenient for matching with microscopy/spectroscopy/imaging systems
  • Wide spectral response: 200–1100 nm (BSI models) / 300–1000 nm (GSENSE4040), covering visible to near-infrared
  • Cross-platform development: Windows / Linux SDK (C/C++/C#/Python) provided, supporting ToupView/CLView; some models compatible with LabVIEW / MATLAB

Product Details

Specifications
Model sMAX16BM-U3-CL-GPS
Sensor GSENSE4040BSI (sCMOS)
Shutter Type Rolling shutter
Color Type Monochrome
Resolution 16.8 MP (4096×4096)
Sensor Size 36.9 mm × 36.9 mm
Sensor Diagonal 3.26" (52.18 mm)
Pixel Size 9 µm × 9 µm
Performance Parameters
Frame Rate 20 fps @ 4096×4096 (USB3); 23 fps @ 4096×4096 (Camera Link)
Bit Depth 8/12/16-bit
Dynamic Range 55.0 dB (HCG) / 62.4 dB (LCG) (12-bit)
Sensitivity 26.58 V/(lux·s) @ 550 nm
Interface Parameters
GPIO 1 opto-isolated input, 1 opto-isolated output, 2 non-isolated I/O ports
Lens Mount M54 × 0.75
Data Interface USB3/Camera Link
Power Supply 19 V 4.74 A DC
Physical Parameters
Dimensions 100 mm × 100 mm × 127.7 mm
Weight 1317 g
Environmental Parameters
Operating Temperature -30 °C to +45 °C
Operating Humidity 0 – 95%
Storage Temperature -40 °C to +60 °C
Storage Humidity TBD
Other Parameters
Operating System Windows/Linux
Certification TBD

Product Overview

sMAX16BM-U3-CL-GPS is a scientific-grade cooled camera featuring a GSENSE4040BSI (sCMOS) back-illuminated sCMOS image sensor with the following characteristics:

  • High-resolution imaging: 16.8 MP (4096×4096) resolution, 9 µm × 9 µm pixel size, sensor format 36.9 mm × 36.9 mm
  • Shutter design: Features Rolling shutter design, supports monochrome imaging, suitable for fluorescence imaging, spectral analysis, gene sequencing and other scientific applications
  • High-speed data transmission: Supports USB3/Camera Link high-speed data interface, maximum frame rate up to 20 fps @ 4096×4096 (USB3); 23 fps @ 4096×4096 (Camera Link) , data output formats include 8/12/16-bit
  • Excellent dynamic range: Dynamic range up to 55.0 dB (HCG) / 62.4 dB (LCG) (12-bit) , sensitivity of 26.58 V/(lux·s) @ 550 nm
  • Cooling system: Built-in cooling system can reduce temperature to TBD below ambient, effectively reducing dark current
  • Rich interfaces: Supports GPIO interface, lens mount is standard M54 × 0.75 interface
  • Compact design: Overall dimensions 100 mm × 100 mm × 127.7 mm , weight approximately 1317 g , power supply 19 V 4.74 A DC
  • Full platform support: Supports Windows/Linux systems, includes ToupView software and cross-platform SDK, supports C/C++, C#, Python and other mainstream development languages

Core Performance Metrics

Frame Rate

Up to 20 fps @ 4096×4096 (USB3); 23 fps @ 4096×4096 (Camera Link)

Resolution

16.8 MP (4096×4096)

Dynamic Range

55.0 dB (HCG) / 62.4 dB (LCG) (12-bit)

Scientific Imaging Features

Back-illuminated Sensor

Features back-illuminated sCMOS sensor with higher quantum efficiency, particularly suitable for weak light imaging applications

Cooling Noise Reduction

Built-in cooling system effectively reduces dark current and noise, improving image quality and signal-to-noise ratio

High Sensitivity

Sensitivity reaches 26.58 V/(lux·s) @ 550 nm , meeting high-precision requirements for scientific imaging

Flexible Control

Supports ROI, binning, trigger control and other functions, adapting to different research requirements

The sMAX16BM-U3-CL-GPS camera, with its excellent scientific imaging performance, stable cooling system, and rich interface configuration, is an ideal choice for research institutions, medical facilities, and high-end industrial applications, capable of meeting various precision imaging and analysis requirements.

sMAX16BM-U3-CL-GPS Product Manual

PDF format, includes detailed technical parameters and dimensional structure


SDK Development Kit

Supports Windows, Linux, macOS and other multi-platforms


3D Model Files

STEP format, for mechanical design integration

Packing List #

Standard accessories and packing details for sMAX cooled scientific CMOS cameras (USB3.0 / CameraLink · −40 °C cooling)

Recommended kit (sMAX04BM)
  1. Camera body - sMAX series
  2. Power adapter - input AC 100~240 V 50/60 Hz, output DC 12 V 3 A
  3. I/O cable - 7-pin cable or extension
  4. Cable - USB3.0
  5. Lens (optional) - C-mount
Note: The sMAX series uses dual-stage TEC deep cooling reaching 40 °C below ambient.
Recommended kit (sMAX04BM-CL100)
  1. Camera body - sMAX series
  2. Power adapter - input AC 100~240 V 50/60 Hz, output DC 12 V 3 A
  3. I/O cable - 7-pin cable or extension
  4. Cable - CameraLink
  5. Lens (optional) - C-mount
Note: CameraLink variants support 100 fps and require a CameraLink frame grabber.
Recommended kit (sMAX16AM / sMAX16BM)
  1. Camera body - sMAX series
  2. Power adapter - input AC 100~240 V 50/60 Hz, output DC 19 V 4 A
  3. I/O cable - 7-pin cable or extension
  4. Cable - USB3.0 and CameraLink
  5. Lens (optional) - C-mount
Note: Dual interfaces provide flexibility; GPS models support precise timestamping for astronomy and similar use.
Click the interface buttons above to view each packing list

Product Dimensions #

Outline drawings for sMAX cooled scientific CMOS cameras

sMAX04BM outline dimensions
sMAX04BM(USB3.0)
USB3.0 Outline drawing
2048×2048 resolution, 6.5 µm pixels
sMAX04BM-CL100 outline dimensions
sMAX04BM-CL100
CameraLink Outline drawing
100 fps high-speed capture
sMAX16AM/BM outline dimensions
sMAX16AM/sMAX16BM
USB3+CL Outline drawing
4096×4096 resolution, 9 µm pixels
sMAX16AM/BM outline dimensions
sMAX16AM/sMAX16BM GPS
USB3+CL+GPS Outline drawing
4096×4096 resolution, 9 µm pixels
Click an image to view full size

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