AS7263,NIR Spectral IR Sensor, 6-Channel NIR Spectrometer

The AS7263 NIR Spectral IR Sensor is a highly compact and advanced 6-channel spectrometer designed for near-infrared light measurement. Ideal for applications requiring spectral identification, the AS7263 offers six specific channels that measure NIR wavelengths ranging from 610nm to 860nm. Each channel provides a Full Width Half Maximum (FWHM) of 20nm, ensuring precise and reliable spectral data acquisition. Integrated with both UART and I²C interfaces, it provides seamless communication, making it compatible with various systems and devices.

One of the standout features of the AS7263 is its built-in LED driver. This driver enables electronic shutter applications and allows users to control external light sources, further enhancing spectral measurement accuracy. The device is housed in a robust 20-pin LGA package with a built-in aperture, maintaining optimal light input and ensuring accurate readings. With low power requirements and stable performance across a wide temperature range, the AS7263 is an ideal choice for applications like product authentication, chemical analysis, and food/beverage safety testing.

Whether you are looking to integrate spectral measurement into your product or need a reliable tool for accurate NIR analysis, the AS7263 offers unmatched performance, versatility, and ease of use.

• 6-Channel NIR Spectrometry: Measures near-infrared light across six specific channels (610nm, 680nm, 730nm, 760nm, 810nm, and 860nm) for precise spectral identification.
• Compact Design: Small 20-pin LGA package with a built-in aperture, suitable for compact integration.
• Flexible Communication Interfaces: Supports UART or I²C communication, offering easy integration with various systems.
• Low Power Consumption: Operates efficiently with a low voltage range of 2.7V to 3.6V.
• Integrated LED Driver: Programmable LED drivers for controlling light sources, enhancing measurement accuracy.
• Temperature Stability: Designed to maintain consistent performance without drift across temperature variations.