AI-Based Multi-Component Visual Monitoring for Food Product Quality Inspection

Technology
In development
University

Vision-based quality monitoring system using multiband cameras (RGB plus dual infrared) to analyze color spectra, surface temperature, and three-dimensional features of food products. Performs on-line, near real-time inspection with approximately one-minute image recognition and processing cycles. Built on extensive laboratory experience in multi-component, multi-spectral object monitoring, with rapid deployment possible for target industrial processes.

Overview

This AI-based multi-component visual monitoring system provides food product quality assessment using advanced multiband camera technology. The system integrates RGB and dual infrared (IR1, IR2) imaging to capture comprehensive product data, enabling simultaneous analysis of color spectra, surface temperature, and three-dimensional features. Designed for on-line deployment in industrial food processing environments, the system delivers near real-time quality inspection with image recognition and processing completed in approximately one minute.

The solution builds on extensive laboratory experience in vision-based multi-component and multi-spectral object monitoring. The underlying algorithms have been developed and refined through prior research, allowing for rapid adaptation to specific industrial processes and quality parameters.

Technical specifications

Core technology:

  • Multiband imaging combining RGB, IR1, and IR2 channels
  • Signal processing to extract color spectra, surface temperature, and 3D feature data
  • AI-based image analysis algorithms for pattern recognition and quality classification
  • On-line, near real-time processing capability (~1 minute per analysis cycle)

Deployment approach:

  • Scoping of industrial process and product characteristics to define testing and deployment scheme
  • Setup of vision and analysis equipment adaptable to existing production lines
  • Fine-tuning of AI algorithms for target quality parameters and defect patterns

Key benefits:

  • Non-contact, non-destructive quality assessment
  • Comprehensive multi-parameter analysis in a single inspection pass
  • Rapid turnaround for deployment due to accumulated experience and ready-made image processing algorithms
Technology readiness level

The technology has been developed and validated in a laboratory setting, with demonstrated capability in multi-component and multi-spectral monitoring. The current stage involves adapting the proven system to specific industrial processes. Validation activities include scoping industrial testing and deployment schemes, installing adaptable vision equipment, and fine-tuning AI algorithms for target parameters. The system is positioned for pilot-scale deployment in food production environments.


About Arizona State University

Arizona State University is a comprehensive public research university with a multi-campus presence across the Phoenix metropolitan area and a scale that supports interdisciplinary, use-inspired discovery. Industry partners access co-located laboratories, a research and technology park, and innovation centers that house corporate teams with faculty to speed prototyping and validation. A formal alliance with a major hospital system and proximity to a fast-growing manufacturing corridor enable clinical translation and pilot-scale testbeds, while applied student engagements create dependable talent pipelines. Research is backed by competitive federal funding from agencies such as NSF, NIH, DOE, DOD, and NASA. A dedicated technology transfer office supports IP, licensing, and startup formation.

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