Webinar Overview

Spectral sensing is rapidly emerging as a transformative alternative to traditional image-based solutions across consumer, industrial, and medical applications. Powered by advanced machine learning and AI-driven classification, spectral data enables robust identification of materials and states of matter – while significantly reducing system complexity. However, widespread adoption was constrained so far by challenges such as system cost, limited design flexibility, scalability concerns, and the availability of application-specific sensing components.

Active spectroscopy addresses these barriers by introducing a modular, “LEGO-like” approach to system design. By combining LEDs, photodetectors, and analog front-end devices, customers can selectively assemble tailored sensing solutions for their specific application needs. Leveraging ams OSRAM’s high-quality emitters and detectors – known for their exceptional spectral stability and performance – this approach enables flexible, application-optimized system configurations that stand out in the market.

This session introduces the fundamentals of active spectroscopy and demonstrates users can easily adapt the relevant peak wavelength and number of effective spectral channels to their targeted application challenge without adding hardware complexity.

Compared to conventional spectral sensing solutions which rely on costly sensing equipment paired with homogenous broadband light sources such as halogen or xenon, this approach delivers high measurement precision, improved scalability, and reliable sensing performance over extended working distances – without requiring close object to sensor proximity. The session concludes with real-world application insights and experimental laboratory results, providing practical guidance on performance optimization, system scalability, and design considerations for next-generation spectral sensing solutions.