NOIP1SN1300A-QDI

NOIP1SN1300A-SQDI is a image sensor made specifically for machine vision applications. It is designed to provide superior results in applications such as robotic vision, industrial imaging, inspection, surveillance, and medical imaging.The NOIP1SN1300A-SQDI image sensor is a 2.3 megapixel device with a pixel pitch of just 5.5 microns, allowing it to capture more detail with fewer pixels. It is capable of capturing color and monochrome images, as well as infrared images with its extended ISO range and high sensitivity. It features Dual Conversion Gain technology, which makes it particularly well suited for low light conditions and applications requiring high dynamic range.

The NOIP1SN1300A-SQDI is a global shutter image sensor, meaning it can capture an entire frame at once as opposed to the selective area scanning used by other image sensors. Thanks to its high frame rate of 200 fps at full resolution, the NOIP1SN1300A-SQDI is ideal for capturing fast events in real time. It also features an on-board processor and FPGA that offers enhanced image processing capabilities. The integrated features such as image sharpening, temporal and spatial noise reduction, 3D imaging, and distortion correction make the NOIP1SN1300A-SQDI perfect for applications such as 3D imaging and high-precision inspection.

The NOIP1SN1300A-SQDI is an excellent choice for machine vision applications because it offers superior image quality without sacrificing speed or accuracy. It has high dynamic range, low noise, and great image detail, while its high frame rate combined with its on-board processing capabilities ensures fast and accurate results.

The working principle of the NOIP1SN1300A-SQDI image sensor is fairly simple. It utilizes a CMOS image sensor that is sensitive to light and converts the light that enters into digital image data. The on-board processor then takes this image data, processes it, and produces a high-quality digital image. The processing steps include such operations as color space conversion, color balancing, noise reduction, sharpening, and lens distortion correction. The processed data is then sent out of the system for further analysis and storage.