MAX (Sony | High Resolution)

Product Introduction

Based on Sony Exmor large-format sCMOS sensors (IMX811/411/461/455/410, etc.), covering full-frame to medium-format resolutions from 24 MP to 251 MP. The cameras feature high-efficiency TEC deep cooling with closed-loop temperature control (typical ΔT ≈ 40 °C), combined with anti-condensation optical structure to maintain low dark current and stable black level under low-light and long-exposure conditions. 10GigE/USB3.0 multi-interface options with built-in buffer (model-dependent) ensure high bandwidth and continuous long-term acquisition. Support free-running, software/hardware triggering, and multi-camera synchronization, suitable for microscopy stitching, cultural heritage imaging, surveying and mapping, semiconductor inspection, astronomical observation, and other ultra-high-resolution scenarios. Cross-platform SDK and ToupView/ToupLite software provided for system integration and secondary development.

Product Features

  • Resolution coverage: 24–251 MP, pixel size 2.81–5.94 µm (model-dependent)
  • Large sensor format: Full-frame/medium-format, M54/M72 high-strength mounts (model-dependent)
  • Deep TEC cooling (typical ΔT ≈ 40 °C) + anti-condensation structure, supports low-light and long-exposure applications
  • Multi-interface: 10GigE/USB3.0, supports built-in buffer and continuous acquisition (model-dependent)
  • Multi-bit depth output: 8/10/12/16-bit (model-dependent) for richer detail and dynamic range
  • Triggering and I/O: Opto-isolated input/output + GPIO; free-running/software-hardware triggering/multi-camera synchronization
  • Image functions: ROI, binning, orientation flip, etc. (model-dependent)
  • Software and SDK: ToupView/ToupLite; Windows/Linux/macOS multi-language SDK (C/C++/C#/Python, etc.)
  • Typical applications: Microscopy stitching, cultural heritage and scientific imaging, remote sensing and surveying, semiconductor inspection, astronomical imaging

Product Models

Choose the best MAX (Sony | High Resolution) model for your application needs

Model Sensor Resolution Pixel Size Frame Rate Data Interface Dynamic Range Action
MAX251AM-10G
IMX811ALR (M, RS) 66.24 mm × 44.16 mm
251 MP (19200×12800) 2.81 µm × 2.81 µm
1.5 fps @ 19200×12800
10GigE
-
View Details
MAX251AC-10G
IMX811AQR (C, RS) 66.24 mm × 44.16 mm
251 MP (19200×12800) 2.81 µm × 2.81 µm
1.5 fps @ 19200×12800
10GigE
-
View Details
MAX151AM-10G
IMX411ALR (M, RS) 53.30 mm × 40.01 mm
151 MP (14176×10640) 3.76 µm × 3.76 µm
6.1 fps @ 14176×10640 6.9 fps @ 7072×5320 20.8 fps @ 4704×3546 61.9 fps @ 1568×1178
10GigE
-
View Details
MAX151AC-10G
IMX411AQR (C, RS) 53.30 mm × 40.01 mm
151 MP (14176×10640) 3.76 µm × 3.76 µm
6.1 fps @ 14176×10640 6.9 fps @ 7072×5320 20.8 fps @ 4704×3546 61.9 fps @ 1568×1178
10GigE
-
View Details
MAX102AM-10G
IMX461ALR (M, RS) 43.80 mm × 32.87 mm
102 MP (11648×8742) 3.76 µm × 3.76 µm
8.7 fps @ 11648×8742 8.7 fps @ 5824×4370 27.8 fps @ 3872×2912 82.5 fps @ 1280×970
10GigE
-
View Details
MAX102AC-10G
IMX461AQR (C, RS) 43.80 mm × 32.87 mm
102 MP (11648×8742) 3.76 µm × 3.76 µm
8.7 fps @ 11648×8742 8.7 fps @ 5824×4370 27.8 fps @ 3872×2912 82.5 fps @ 1280×970
10GigE
-
View Details
MAX151AM-U3
IMX411ALR (M, RS) 53.30 mm × 40.01 mm
151 MP (14176×10640) 3.76 µm × 3.76 µm
2.4 fps @ 14176×10640 6.9 fps @ 7072×5320 20.8 fps @ 4704×3546 61.9 fps @ 1568×1178
USB3.0
-
View Details
MAX151AC-U3
IMX411AQR (C, RS) 53.30 mm × 40.01 mm
151 MP (14176×10640) 3.76 µm × 3.76 µm
2.4 fps @ 14176×10640 6.9 fps @ 7072×5320 20.8 fps @ 4704×3546 61.9 fps @ 1568×1178
USB3.0
-
View Details
MAX102AM-U3
IMX461ALR (M, RS) 43.80 mm × 32.87 mm
102 MP (11648×8742) 3.76 µm × 3.76 µm
3.5 fps @ 11648×8742 8.7 fps @ 5824×4370 27.8 fps @ 3872×2912 82.5 fps @ 1280×970
USB3.0
-
View Details
MAX102AC-U3
IMX461AQR (C, RS) 43.80 mm × 32.87 mm
102 MP (11648×8742) 3.76 µm × 3.76 µm
3.5 fps @ 11648×8742 8.7 fps @ 5824×4370 27.8 fps @ 3872×2912 82.5 fps @ 1280×970
USB3.0
-
View Details
MAX62AM
IMX455 (M, RS) 35.98 mm × 23.99 mm
61 MP (9568×6380) 3.76 µm × 3.76 µm
6.1 fps @ 9568×6380 (16-bit) 19.1 fps @ 4784×3190 55.6 fps @ 3184×2124 191 fps @ 1040×706
USB3.0
88.3 dB
View Details
MAX62AC
IMX455 (C, RS) 35.98 mm × 23.99 mm
61 MP (9568×6380) 3.76 µm × 3.76 µm
6.1 fps @ 9568×6380 (16-bit) 19.1 fps @ 4784×3190 55.6 fps @ 3184×2124 191 fps @ 1040×706
USB3.0
85.8 dB
View Details
MAX24AC
IMX410 (C, RS) 36.02 mm × 24.00 mm
24 MP (6064×4040) 5.94 µm × 5.94 µm
15.3 fps @ 6064×4040 (14-bit) 41 fps @ 3024×2012 114 fps @ 2016×1342
USB3.0
87.3 dB
View Details

Packing List #

Standard accessories and packing details for the cooled MAX series (USB3 / 10GigE)

  1. Camera body (MAX series USB3 · cooled)
  2. Power adapter (input AC 100–240 V, 50/60 Hz; output per included label)
  3. I/O cable (7-pin or extension cable)
  4. USB 3.0 data cable (length/connector per shipment)
  5. Lens (optional: M72 / M52 / M42 / C-mount; not included by default)
Supplied cabling and power may vary; original accessories are recommended.
  1. Camera body (MAX series 10GigE · cooled)
  2. Power adapter (input AC 100–240 V, 50/60 Hz; output per included label)
  3. I/O cable (7-pin or extension cable)
  4. 10GigE Ethernet cable (Cat6A/7 shielded recommended)
  5. Lens (optional: M72 / M52 / M42 / C-mount; not included by default)
Use a 10 GbE NIC and high-quality shielded cable; choose cable length per system needs.
Click the interface buttons above to view each packing list

Product Dimensions #

MAX series Outline dimensions (USB3 / 10GigE · cooled)

MAX USB3 · MAX251 & MAX151 Outline dimensions
USB3 Interface
Cooled Outline drawing
Compatible with: MAX251 (IMX811) / MAX151 (IMX411)
MAX USB3 · MAX102 Outline dimensions
USB3 Interface
Cooled Outline drawing
Compatible with: MAX102 (IMX461)
MAX USB3 · MAX62 & MAX24 Outline dimensions
USB3 Interface
Cooled Outline drawing
Compatible with: MAX62 (IMX455) / MAX24 (IMX410)
MAX 10GigE · MAX251 & MAX151 Outline dimensions
10GigE Interface
Cooled Outline drawing
Compatible with: MAX251 / MAX151 (10GigE)
MAX 10GigE · MAX102 Outline dimensions
10GigE Interface
Cooled Outline drawing
Compatible with: MAX102 (10GigE)
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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