Sony’s Global Shutter CMOS Image Sensors

Sony's Image Sensors  set the standard for imaging performance, reliability, and innovation. With high resolution, high speed, and high sensitivity Global Shutter CMOS technology, they capture clean detail in challenging light, support advanced HDR and low-noise operation, and power AI-ready vision across industrial, medical, and machine vision applications.

 

Macnica Americas is a global solutions company that can take you from Sensor to Solution. Our team helps you choose the right Sony sensor, evaluate quickly with no-solder options, and integrate confidently with drivers, ISP tuning, optics guidance, and interface bridging to popular SoCs and FPGAs, all supported by proven supply and lifecycle planning.

 

Contact us to discuss your application requirements and schedule a consult with an imaging specialist.

 

Click here for the Sony Image Sensor Product Lineup

Sony Image Sensors for Industrial Use

With its comprehensive range of image sensors for industrial use, Sony provides revolutionary solutions that extend well
beyond mere automation and speed enhancements to address advanced issues in a variety of industries.

 

Sony’s Global Shutter CMOS Image Sensors redefine precision in motion capture, delivering distortion-free imaging for dynamic and high-speed applications. Unlike traditional rolling shutters, Sony’s innovative global shutter technology ensures that every pixel is exposed simultaneously, eliminating motion artifacts and ensuring sharp, accurate images in even the most demanding environments.

 

Ideal for applications such as industrial automation, robotics, and machine vision, Sony’s Global Shutter CMOS Image Sensors combine high sensitivity, low noise, and advanced pixel design to deliver unparalleled performance. These sensors are the go-to choice for professionals who require precision, reliability, and speed in their imaging solutions.

 

Sony Global Shutter CMOS Image Sensors with Pregius and Pregius S technology are ideal for imaging inspections in machine vision and the smart industry that require the processing of a large volume of image data at high speed, as they make it possible to capture high-quality, undistorted images at high speeds.
 

Read more about Sony Pregius/Pregius S Technology

 

Sony Image Sensors also expand the scope of their applications from factory automation to other industrial imaging and sensing contexts, such as traffic monitoring and infrastructure inspection.
 

Features

 

Provides undistorted images of moving objects

Global shutters function enables the capturing of fast-moving objects without distortion. Text is legible in images.

 

Faster signal processing with lower noise

Our proprietary column A/D conversion circuit realizes both faster signal processing and lower noise. Enhancing the high-precision image inspection, it helps to improve on-site productivity in manufacturing.

 

Realizing both higher definition and smaller size thanks to Pregius S technology

The back-illuminated pixel structure adopted in Pregius S global shutter technology has made both higher definition and smaller size a reality, on top of its non-distortion imaging functionality.This new structure has a superior light collection efficiency compared to the conventional front-illuminated structure and, while maintaining the levels of sensitivity and saturation capacity, achieved a reduction of the pixel size down to 2.74 µm square, about 63% of the conventional models.*1 In addition, rearranging the circuit area from the edges to the back of the sensor area has helped to achieve a 1.7-fold increase in resolution for the same optical size and reduce the package size to about 91% of the existing products.*1

As a result, it can achieve a high-definition small-sized machine vision camera compatible with up to approx. 24.45 M effective pixels in a C-mount 1.2-type sensor, allowing more flexibility in its applications to systems and production lines.

*1) Compared to "IMX253" and "IMX531," Sony’s 1.1-type CMOS image sensors with 12.37 M effective pixels.

 

Fast readout of captured data

The high flexibility in the wiring layout offered by the back-illuminated pixel structure of Pregius S, combined with adoption of the proprietarily developed SLVS-EC interface with an embedded clock, enables high-resolution image data to be read at high speed and output efficiency. This potentially improves the takt time and throughput of the manufacturing systems or equipment.

 

As technologies such as USB 3.0 and 5 GigE become more prevalent, our standard 5 Gbps-compatible product range is enhanced by an extensive lineup of high-speed products for high-end cameras that use a high-speed band, improving the productivity significantly through reducing the time necessary for inspection, image recognition, identification, measurement, and other types of measurement and inspection.

 

High definition imaging over a wide area

C-mount lens compatible image sensors are a standard option for industrial machines, but larger unit multi-pixel sensor will enable high-definition imaging of wider areas.


For example, a comparison between the images taken with 1.1” 12.37 M pixels sensor and one with 127.68 M pixels sensor clearly shows the difference. This will enable to lower capture frequency, which contributes to improved efficiency. It also enhances recognition accuracy by the high resolution imaging.

 

Sony Global Shutter Sensor Product Matrix

Sony Global Shutter Sensor Product Matrix

Rolling Shutter Image Sensors from Sony are designed for high-resolution imaging with exceptional clarity and detail. By exposing pixels sequentially, rolling shutter technology optimizes power efficiency while maintaining outstanding image quality, making it ideal for applications like photography, video recording, and machine vision where moderate object motion is present.

 

Download Starvis™/Starvis 2 Technology Guide

 

Sony enhances this technology with innovations such as high dynamic range (HDR), fast readout speeds, and low noise, ensuring superior performance across a wide range of industries and environments.

 

Sony Security Image Sensors using Starvis/Starvis 2

 

Features

Low Noise

Sony’s rolling global shutter CMOS image sensors are renowned for their low noise performance. While controlling the noise within the pixels that handle photoelectric conversion, they also perform two rounds of noise removal, before and after A/D conversion, providing clear images with less noise even at the same number of pixels, thereby contributing to low-noise camera design.

 

High Sensitivity

The secondary characteristic of Sony’s rolling shutter image sensors is their high sensitivity. The back-illuminated structure allows them to take more light into the photodiodes than image sensors with a front-illuminated structure, achieving higher sensitivity. Some of our rolling global shutter CMOS image sensors are outfitted with highly sensitive STARVIS technology,* which is renowned even for its use in security cameras.


* Image sensors with STARVIS technology (industrial-use, monochrome): IMX455ALK-K, IMX571BLR-J, IMX226CLJ, IMX533CLK,IMX335LLN

 

Large Image Sensor Lineup

C-mount lens compatible image sensors are a standard option for industrial machines, but larger unit multi-pixel sensors will enable high-definition imaging of wider areas.

 

Our lineup of rolling global shutter CMOS image sensors includes large image sensors of more than 35 mm in size. For example, comparing a 1-type with 9 million pixels (the IMX533) and a 4.2-type with 151 million pixels (the IMX411), the latter can cover about 17 times the area as the former, even at the same pixel size. While using a large image sensor results in a bigger camera, it also leads to better productivity through reduced imaging frequency and better recognition accuracy through high resolution.

 

Sony Rolling Shutter Sensor Matrix

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Sony’s Polarization Image Sensors provide a revolutionary approach to imaging by capturing polarization data directly at the pixel level. This technology reveals critical insights about an object’s surface texture, stress, or composition—data that is invisible with standard imaging techniques. Perfect for industrial inspection, medical imaging, and material analysis, Sony’s polarization sensors enhance accuracy and efficiency in applications requiring unparalleled detail and precision.

 

By integrating on-chip polarizers at four angles (0°, 45°, 90°, and 135°), Sony delivers comprehensive polarization information in real time, enabling advanced imaging solutions for challenging use cases.

 

Download the Sony Polarization Technology Guide

Features

Four directional polarizer is formed on the image sensor

Sony’s polarization image sensor can capture a four directional polarization image in one shot by the four directional polarizer (Fig.1). It can calculate the direction and degree of polarization (DoP) based on the intensity of each directional polarization. Together with subsequent signal processing, it can capture the polarization information*2 in real time*3.

*2) Degree of Polarization and Direction of Polarization
*3) Subject to subsequent signal processing power

Global Shutter function

Industrial applications require imaging of fast-moving objects. However, conventional CMOS image sensors are unable to accurately identify fast-moving objects, due to the focal plane distortion, which is caused by the rolling shutter function. The IMX250MZR/MYR, IMX264MZR/MYR, IMX253MZR/MYR(See lineup information.) address this issue by providing an analog memory inside each pixel and realizing the global shutter function to enable high-picture-quality without focal plane distortion.

Compatible with High-frame-rate Photography

The column-parallel A/D conversion technology of Sony's Global Shutter CMOS Image Sensors is used to realize high-speed imaging of up to 163.4frame/s (ADC 8 bit) for the IMX250MZR/MYR, 35.7 frame/s(ADC 12 bit) for the IMX264MZR/MYR and 68.3frame/s (ADC 8 bit) for the IMX253MZR/MYR. Increased processing speed is used for industrial applications.

ROI Mode and Trigger Mode

Region of Interest (ROI) Mode crops required areas. Up to 8 × 8 = 64 locations can be set with IMX250MZR/MYR, and 1 location with IMX264MZR/MYR. In addition to setting 8 × 8 = 64 locations, IMX253MZR/MYR provides greater freedom of specifying regions and allows overlap of specified regions. Various exposure methods are provided with the trigger mode, which controls the exposure time using an external pulse.

What is Polarization?

Light has physical elements : brightness (amplitude), color (wavelength) and polarization (vibration direction). Lights from direct sun or fluorescent lamps vibrate in various directions and is called unpolarized light.

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Sony’s Ultraviolet (UV) Image Sensors open up new possibilities by capturing the unseen ultraviolet spectrum with unparalleled precision. Designed for industries where UV sensitivity is critical, these Sony Image Sensors provide exceptional imaging performance for applications such as industrial inspection, scientific research, and semiconductor manufacturing.

 

By utilizing specialized materials and advanced sensor technology, Sony’s UV sensors deliver superior resolution, high sensitivity, and low noise, ensuring accurate results in challenging environments. With Sony’s expertise in imaging and sensor design, UV applications achieve new levels of detail and reliability.

Features

Equipped with Global Shutter Capable of High-speed and Undistorted Photography

With the structure specially designed for the properties of the UV wavelengths coupled with Pregius S technology, the image sensor can capture undistorted images of moving objects within a UV range of 200–400 nm and at a high frame rate of 193 fps (operated in the 10-bit mode). This image sensor has a potential to expand the scope of application from the conventional use of UV cameras in the inspection of semiconductors, etc. to areas that require high-speed capability, such as sorting of recycled materials.

Achieving High-resolution and Low-noise Photography

The Sony Image Sensor has adopted the component materials dedicated for UV range imaging, and a special structure has been developed for its light receiving area. These make it possible to maintain high UV sensitivity while significantly minimizing noises to produce high quality images.

Huge Number of Pixels to Cover Versatile Applications

The pixels are miniaturized down to 2.74 um while maintaining high UV sensitivity, realizing a small multi-pixel sensor of the 2/3 type with approximately 8.13 megapixels. It serves well with factory automation, but also for many other purposes, notably for outdoor use for infrastructure inspections, by virtue of its portability and high resolution.

What is UV?

The diagram below is a simplified illustration of the light spectrum. Ultraviolet (UV) has shorter wavelengths than visible light, typically ranging between 10–400 nm. IMX487 covers the range between 200–400 nm, which is the UV range suitable for industrial applications.

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Short-Wave Infrared (SWIR) Image Sensors from Sony offer groundbreaking capabilities to capture what lies beyond the visible spectrum, enabling precise imaging in challenging conditions. By leveraging innovative sensor design, Sony’s SWIR technology provides exceptional sensitivity across wavelengths, from visible to short-wave infrared, making it ideal for specialized applications that demand clarity and accuracy.

 

NEW! 1/1.4" 5.32 MPIMX992 SWIR Image Sensor

 

Whether for industrial inspection, agricultural analysis, medical diagnostics, or security systems, Sony’s SWIR sensors deliver unmatched performance, enabling businesses to achieve new levels of operational efficiency and insight. With their compact size and high resolution, these Sony Global Shutter Sensors empower applications where space and precision are critical.

 

Download the Sony SensSWIR Technology Guide

 

The use of SWIR imaging, which is not affected by fine airborne particles, means these sensors can also reduce the impact of mist, smoke, dust, and other substances to offer clear imaging of subjects that would not be perceptible to the human eye.

 

Sony’s SWIR image sensors use original SenSWIR™ technology to achieve both high resolution and compact sensor size. They are also compatible with imaging not only of SWIR-band light but also the visible light spectrum. In addition to digital output compatibility, they have functions like global shutter and trigger mode, making them suitable for industrial cameras.

Sony Time of Flight (ToF) image sensors measure the distance to a target object by emitting light from a source, usually a laser or LED, and detecting the reflected light, based on the time elapsed between the two. In addition to capturing images in the X and Y directions, they can acquire information in the Z direction and are capable of sensing in a 3D space. This enables inspections based on volume and 3D shapes, as well as the ability to distinguish overlapping objects - capabilities which are difficult to achieve with conventional 2D imaging. 

 

The Sony Image Sensors can also be used for applications in which relative distances are used in real time, such as automatic control and collision avoidance.

 

NEW! SPAD ToF Depth Sensor - Learn More!

Features

  • dToF and iToF Sensors - dToF sensors are capable of measurement over long distances and iToF sensors offer high speed and high image resolution
  • Direct ToF (dToF) - This type of sensor measures the time between the emission of light and detection of the reflected light. It uses single photon avalanche diode (SPAD) pixels, detecting even low levels of light. This allows for accurate measurement of distant objects.
  • Indirect ToF (iToF) - This type of sensor measures distances by accumulating the electric charge generated by the reflected light in each pixel and detecting any phase differences from the time of emission of light. It uses a conventional CMOS image sensor structure and can capture high-resolution 3D images even with a compact size.

 

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IMX147LQT-C From 12M to 24M From 0µm to 2µm LVDS - sub LVDS
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IMX204-0KQC From 12M to 24M From 0µm to 2µm SLVS (EC)
IMX226CLJ-C From 9M to 12M From 0µm to 2µm LVDS - sub LVDS
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IMX249 From 0M to 3M From 4µm to 6µm LVDS - sub LVDS
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IMX253LQR-C From 12M to 24M From 2µm to 4µm LVDS - sub LVDS
IMX253MYR-C From 12M to 24M From 2µm to 4µm LVDS - sub LVDS
IMX255LLR-C From 6M to 9M From 2µm to 4µm LVDS - sub LVDS
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IMX264MZR-C From 3M to 6M From 2µm to 4µm LVDS - sub LVDS
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IMX267LLR-C From 6M to 9M From 2µm to 4µm LVDS - sub LVDS
IMX267LQR-C From 6M to 9M From 2µm to 4µm LVDS - sub LVDS
IMX269AQR1-D From 12M to 24M From 2µm to 4µm LVDS - sub LVDS
IMX272AQK-C From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX273LLR-C From 0M to 3M From 2µm to 4µm LVDS - sub LVDS
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IMX277CQT-C From 12M to 24M From 0µm to 2µm SLVS (EC)
IMX283CQJ-C From 12M to 24M From 2µm to 4µm MIPI
IMX287LLR-C From 0M to 3M From 6µm to 8µm LVDS - sub LVDS
IMX287LQR-C From 0M to 3M From 6µm to 8µm LVDS - sub LVDS
IMX290LLR-C From 0M to 3M From 2µm to 4µm CMOS Parallel
IMX290LQR-C From 0M to 3M From 2µm to 4µm CMOS Parallel
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IMX297LLR-C From 0M to 3M From 6µm to 8µm MIPI
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IMX335LLN-C From 6M to 9M From 2µm to 4µm MIPI
IMX342LLA-C From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX342LQA-C From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX347LQR-C From 9M to 12M From 2µm to 4µm MIPI
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IMX411ALR-C More than 50M From 2µm to 4µm SLVS (EC)
IMX411AQR-C More than 50M From 2µm to 4µm SLVS (EC)
IMX412AACK-D From 12M to 24M From 0µm to 2µm MIPI
IMX415AAQR-C From 6M to 9M From 0µm to 2µm MIPI
IMX420LLJ-C From 6M to 9M From 4µm to 6µm SLVS (EC)
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IMX425LLJ-C From 0M to 3M More than 8µm SLVS (EC)
IMX425LQJ-C From 0M to 3M More than 8µm SLVS (EC)
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IMX432LQJ-C From 0M to 3M More than 8µm SLVS (EC)
IMX433LLJ-C From 0M to 3M More than 8µm SLVS (EC)
IMX433LQJ-C From 0M to 3M More than 8µm SLVS (EC)
IMX437LQJ-C From 0M to 3M From 4µm to 6µm SLVS (EC)
IMX455ALK-C More than 50M From 2µm to 4µm SLVS (EC)
IMX455ALK-K More than 50M From 2µm to 4µm SLVS (EC)
IMX455AQK-C More than 50M From 2µm to 4µm SLVS (EC)
IMX455AQK-K More than 50M From 2µm to 4µm SLVS (EC)
IMX461ALR-C More than 50M From 2µm to 4µm SLVS (EC)
IMX461AQR-C More than 50M From 2µm to 4µm SLVS (EC)
IMX462LQR-C From 6M to 9M From 2µm to 4µm LVDS - sub LVDS
IMX462LQR1-C From 6M to 9M From 2µm to 4µm LVDS - sub LVDS
IMX464LQR-C From 9M to 12M From 2µm to 4µm MIPI
IMX464LQR1-C From 9M to 12M From 2µm to 4µm MIPI
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IMX485LQJ1-C From 12M to 24M From 2µm to 4µm MIPI
IMX487AAMJ-C From 6M to 9M From 2µm to 4µm SLVS (EC)
IMX492LLJ-C From 24M to 50M From 2µm to 4µm MIPI
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IMX531AAQJ-C From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX532AAMJ-C From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX532AAQJ-C From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX533CLK-D From 9M to 12M From 2µm to 4µm SLVS (EC)
IMX533CQK-D From 9M to 12M From 2µm to 4µm SLVS (EC)
IMX535AAMJ-C From 12M to 24M From 2µm to 4µm SLVS (EC)
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IMX540AAMJ-C From 24M to 50M From 2µm to 4µm SLVS (EC)
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IMX545AAQJ-C From 12M to 24M From 2µm to 4µm SLVS (EC)
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IMX547AAMJ-C From 3M to 6M From 2µm to 4µm SLVS (EC)
IMX571BQR-J From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX577AACK-C From 12M to 24M From 0µm to 2µm MIPI
IMX636 From 0M to 3M From 4µm to 6µm MIPI
IMX637 From 0M to 3M From 4µm to 6µm MIPI
IMX661AAMR-C More than 50M From 2µm to 4µm SLVS (EC)
IMX661AAQR-C More than 50M From 2µm to 4µm SLVS (EC)
IMX664 From 3M to 6M From 2µm to 4µm MIPI
IMX675 From 3M to 6M From 0µm to 2µm MIPI
IMX715AAQR1 From 6M to 9M From 0µm to 2µm MIPI
IMX990AABA-C From 0M to 3M From 4µm to 6µm SLVS (EC)
IMX990AABJ-C From 0M to 3M From 4µm to 6µm SLVS (EC)
IMX253MZR-C From 12M to 24M From 2µm to 4µm LVDS - sub LVDS
IMX387LLA-C From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX421LQJ-C From 0M to 3M From 4µm to 6µm SLVS (EC)
IMX515-AAQN-C From 6M to 9M From 0µm to 2µm MIPI
IMX530AAMJ-C From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX530AAQJ-C From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX531AAMJ-C From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX547AAQJ-C From 3M to 6M From 2µm to 4µm SLVS (EC)
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IMX548AAQJ-C From 3M to 6M From 2µm to 4µm SLVS (EC)
IMX556PLR-C From 0M to 3M More than 8µm MIPI
IMX565AAMJ-C From 12M to 24M From 2µm to 4µm MIPI
IMX565AAQJ-C From 12M to 24M From 2µm to 4µm MIPI
IMX566AAMJ-C From 6M to 9M From 2µm to 4µm MIPI
IMX566AAQJ-C From 6M to 9M From 2µm to 4µm MIPI
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IMX567AAQJ-C From 3M to 6M From 2µm to 4µm MIPI
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IMX568AAQJ-C From 3M to 6M From 2µm to 4µm MIPI
IMX570PLR-C From 0M to 3M From 4µm to 6µm MIPI
IMX571BLR-J From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX571BQR-C From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX991AABA-C From 0M to 3M From 4µm to 6µm SLVS (EC)
IMX991AABJ-C From 0M to 3M From 4µm to 6µm SLVS (EC)
IMX271AQR From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX585-AAQJ1 From 6M to 9M From 2µm to 4µm MIPI
IMX585-AAMJ1 From 6M to 9M From 2µm to 4µm MIPI
IMX678-AAQR1 From 6M to 9M From 0µm to 2µm MIPI
IMX678-AAMR1 From 6M to 9M From 0µm to 2µm MIPI
IMX335LQN-C From 6M to 9M From 2µm to 4µm
IMX662-AAMR From 0M to 3M From 2µm to 4µm MIPI
IMX662-AAQR From 0M to 3M From 2µm to 4µm MIPI
IMX662-AAQR1 From 0M to 3M From 2µm to 4µm MIPI
IMX992AABA From 3M to 6M From 2µm to 4µm SLVS (EC)
IMX992AABJ From 6M to 9M From 2µm to 4µm MIPI
IMX993AABA From 3M to 6M From 2µm to 4µm MIPI
IMX993AABJ From 3M to 6M From 2µm to 4µm MIPI
IMX676-AAMR1 From 12M to 24M From 0µm to 2µm MIPI
IMX901-AMR From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX901-AQR From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX902-AMR From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX902-AQR From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX560PLR-C From 0M to 3M From 4µm to 6µm MIPI
IMX560AAMV-C From 0M to 3M From 4µm to 6µm MIPI
IMX925-AQJ From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX935-AMJ From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX925-AMJ From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX936-AMJ From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX936-AQJ From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX935-AQJ From 24M to 50M From 2µm to 4µm SLVS (EC)
IMX926-AQJ From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX926-AMJ From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX900-AQR From 12M to 24M From 2µm to 4µm SLVS (EC)
IMX900-AMR From 12M to 24M From 2µm to 4µm SLVS (EC)
Sony IMX779-AQR From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony IMX938 From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony IMX937 From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony IMX939 From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony IMX929 From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony IMX949 From 6M to 9M CMOS Parallel
Sony IMX947 From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony IMX928 From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony IMX927 From 6M to 9M From 0µm to 2µm CMOS Parallel
Sony Security Image Sensors using STARVIS and STARVIS 2 From 0µm to 2µm CMOS Parallel
Sony IMX307LQD/LQR From 0M to 3M From 2µm to 4µm LVDS - sub LVDS
Sony IMX327LQR/LQR1 From 0M to 3M From 2µm to 4µm LVDS - sub LVDS
Sony IMX482LQJ From 0M to 3M From 4µm to 6µm MIPI
Sony IMX778-AQR1 From 3M to 6M From 0µm to 2µm MIPI
Sony IMX835-AQJ1 From 6M to 9M From 2µm to 4µm MIPI
Sony IMX838-AQR1 From 6M to 9M From 2µm to 4µm MIPI
Sony IMX832-AQR/AQR1 From 0M to 3M From 2µm to 4µm MIPI
Sony IMX811-AAMR
Sony IMX06A-AJ1R-J and IMX06A-AMR-J More than 50M From 2µm to 4µm SLVS (EC)
Sony IMX908 More than 50M From 2µm to 4µm SLVS (EC)
Sony IMX711-AABY More than 50M From 2µm to 4µm SLVS (EC)
From 3M to 6M From 4µm to 6µm MIPI
More than 50M From 2µm to 4µm SLVS (EC)

Sony CMOS Image Sensor Product List

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