
Research Article
Advanced Defect Part Identification System: A Comprehensive Multi-Modal Approach Integrating Computer Vision, Deep Learning, and IoT for Industry 4.0 Quality Control
@INPROCEEDINGS{10.4108/eai.19-12-2025.2362538, author={Pooja Deswal and Abhiyanshu Anand and Abhishek Singh and Sanskar Singh and Chirag Bansal}, title={Advanced Defect Part Identification System: A Comprehensive Multi-Modal Approach Integrating Computer Vision, Deep Learning, and IoT for Industry 4.0 Quality Control }, proceedings={Proceedings of the 1st International Conference on Computational Techniques in Data Science, IICTDS 2025, 19-20 December 2025, Chandigarh, India}, publisher={EAI}, proceedings_a={IICTDS}, year={2026}, month={11}, keywords={Defect detection Deep learning Computer vision Industry 40 Zero Defect Manufacturing IoT Multi-modal sensing Edge-cloud computing Explainable AI Smart Manufacturing}, doi={10.4108/eai.19-12-2025.2362538} }- Pooja Deswal
Abhiyanshu Anand
Abhishek Singh
Sanskar Singh
Chirag Bansal
Year: 2026
Advanced Defect Part Identification System: A Comprehensive Multi-Modal Approach Integrating Computer Vision, Deep Learning, and IoT for Industry 4.0 Quality Control
IICTDS
EAI
DOI: 10.4108/eai.19-12-2025.2362538
Abstract
A unified five-point defect detection framework including (1) advanced machine vision methodologies, (2) multi-modal sensing, (3) expert systems, (4) decision support systems and (5) edge-computing infrastructure supports both Zero Defect Manufacturing (ZDM) and adaptive quality assurance in smart factories. Our approach offers a robust five-point approach that resolves many of the current limitations in machine vision defect detection. First, the use of advanced vision models where transfer learning is employed has demonstrated an overall accuracy of 96.8% across all defect types. Second, a multi-modal sensor fusion approach delivers an 8-12% increase in robustness over a single-modal approach to defect detection. Third, a hybrid expert system takes the raw predictions produced by AI and creates actionable intelligence for the manufacturing environment. Fourth, an edge computing-enabled platform provides the fastest possible real-time inference at 48 milliseconds while allowing for use cloud-based infrastructure to continually improve the models. Finally, Explainable AI offers manufacturers the ability to remain compliant with safety-critical requirements. Directions for future research suggest developing data-efficient learning methods, applying Explainable AI, performing Digital Twin integration and creating standardized benchmarks for cross-domain defect detection.

