ON Semiconductor MT9P001I12STCH-B-GEVB Product Overview
The MT9P001I12STCH-B-GEVB is a high-performance digital image sensor board from ON Semiconductor, designed to cater to a wide range of imaging applications. This evaluation board showcases the capabilities of the MT9P001 sensor, a 1/2.5-inch CMOS active-pixel digital image sensor with an active imaging pixel array of 2592H x 1944V. It incorporates sophisticated camera functions and is programmable through a simple two-wire serial interface.
Key Features
- High-Quality Imaging: The MT9P001I12STCH-B-GEVB features a 5-megapixel sensor that delivers exceptional image quality with low-light performance, making it suitable for a variety of lighting conditions.
- Flexibility: With its electronic rolling shutter and advanced features like binning and windowing, this sensor board is highly versatile and can be adapted to different applications and scenarios.
- Easy Integration: The evaluation board is designed for plug-and-play functionality, simplifying the process of integrating the sensor into existing systems.
- Programmable Controls: Users can access a range of settings including exposure, gain, frame rate, and more, allowing for precise control over imaging parameters.
Applications
The MT9P001I12STCH-B-GEVB is ideal for a variety of applications where high-resolution image capture is required. These include:
- Security and Surveillance
- Machine Vision and Industrial Imaging
- Medical Imaging
- Scanning and Document Imaging
- Consumer Electronics
Technical Specifications
The MT9P001 sensor on the evaluation board boasts impressive technical specifications that ensure high performance in a compact form factor:
- Resolution: 5 Megapixel (2592 x 1944)
- Sensor Size: 1/2.5-inch format
- Pixel Size: 2.2 µm x 2.2 µm
- Shutter Type: Electronic Rolling Shutter
- Interface: Two-wire serial interface for easy programming
The MT9P001I12STCH-B-GEVB from ON Semiconductor represents a robust imaging solution, providing high-quality imaging capabilities with the flexibility and control required for advanced imaging systems.