Digital Twin for proactive quality control in industrial vision systems

Authors

DOI:

https://doi.org/10.17979/ja-cea.2026.47.13716

Keywords:

Intelligent manufacturing systems, Process supervision, multi-agent systems applied to industrial systems, Quality assurance and maintenance

Abstract

This work presents a Digital Twin aimed at incorporating proactive quality control capabilities into industrial vision systems applied to the manufacturing of automotive components. The proposed approach combines an existing industrial inspection
system with a multi-agent platform developed using SPADE and deep learning-based models for the automatic identification of surface defects. The Digital Twin enables the synchronization of information generated by the physical inspection system with
a digital representation oriented toward defect analysis and production-process traceability. For automatic defect identification, models based on the YOLO architecture are trained using images acquired from the industrial environment. In addition, a
traceability analysis mechanism is proposed to associate specific defects with different stages of the manufacturing process. The proposed architecture has been defined and functionally validated in an industrial environment for headlamp lens inspection,
providing a basis for future supervision and proactive quality control strategies in manufacturing.

References

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Published

2026-09-01

Issue

Section

Computadores y Control