Development of a tool centre point tracker for performance monitoring of industrial robots

Accurate monitoring of robotic Tool Centre Point (TCP) trajectories is essential for ensuring precision, repeatability, and quality in industrial processes such as welding, milling, and assembly. The proposed framework integrates computer vision techniques with trajectory analysis to facilitate the monitoring of robotic operations. The system integrates an industrial robot with an HD camera and Python-based OpenCV processing to visualize and evaluate deviations in real time. The methodology is structured into three stages: (i) contour detection and preprocessing of visual data, (ii) trajectory tracking and visualization, and (iii) accuracy evaluation through nearest-neighbor point cloud analysis and Euclidean distance metrics. The findings demonstrate the system's capacity to reliably detect pointer motion, remove irrelevant background information and compute deviations with millimeter-scale precision. A comparative investigation was conducted to determine the accuracy, consistency, and robustness of automated monitoring in comparison to manual observation.

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Publication Details

Journal
Mechatronic Systems and Materials Proceedings
Published
2026-01-09
DOI
https://doi.org/10.21595/msmp.2025.25419
Primary Topic
Image and Object Detection Techniques
Type
article
Field-Weighted Citation Impact
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article

Development of a tool centre point tracker for performance monitoring of industrial robots

Marius Šumanas, Mantas Makulavičius, Andrius Dzedzickis, Artem Konotopchyk
Mechatronic Systems and Materials Proceedings
Image and Object Detection Techniques
article

Development of a tool centre point tracker for performance monitoring of industrial robots

Marius Šumanas, Mantas Makulavičius, Andrius Dzedzickis, Artem Konotopchyk
article en

Abstract

Accurate monitoring of robotic Tool Centre Point (TCP) trajectories is essential for ensuring precision, repeatability, and quality in industrial processes such as welding, milling, and assembly. The proposed framework integrates computer vision techniques with trajectory analysis to facilitate the monitoring of robotic operations. The system integrates an industrial robot with an HD camera and Python-based OpenCV processing to visualize and evaluate deviations in real time. The methodology is structured into three stages: (i) contour detection and preprocessing of visual data, (ii) trajectory tracking and visualization, and (iii) accuracy evaluation through nearest-neighbor point cloud analysis and Euclidean distance metrics. The findings demonstrate the system's capacity to reliably detect pointer motion, remove irrelevant background information and compute deviations with millimeter-scale precision. A comparative investigation was conducted to determine the accuracy, consistency, and robustness of automated monitoring in comparison to manual observation.

Mechatronic Systems and Materials ProceedingsVol. 1
Vilnius Gediminas Technical University (LT)
Industry, innovation and infrastructure
Openalex Percentile: Top 94%
Image and Object Detection Techniques
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