Intelligent Operator‐Independent Flexibility in Robotic Non‐Destructive Evaluation

The non‐destructive evaluation (NDE) of high‐value components is commonly regarded as a bottleneck in the manufacturing industry. Even though robotic automation is leveraged these days to accelerate the process, productivity is still hindered by the limitations of robotic and automated systems requiring intensive calibrations and precise fixturing of inspection components. This restricts the systems’ flexibility and ability to adapt to uncertainties in part geometry, inspection process or changing environments . This study presents a system that is both flexible and adaptable, integrating 3D vision sensing and force‐position control with the human‐collaborative KUKA LBR robot. The system is designed for the geometry‐agnostic, precise delivery of ultrasonic NDE sensors, enabling the inspection of materials with varying geometries and surface profiles . The developed system demonstrated its efficacy by providing the user with the ability to inspect a given workpiece at a random pose without having prior knowledge of the component. Pose independence was proven with multiple scans producing consistent results, achieving high inspection sensitivity via detecting 100% of the fabricated defects in the scan region. This study has succeeded in investigating the suitability of flexible human‐collaborative manipulators for NDE and showcases the successful integration of an adaptable scanning system capable of identifying and scanning varying geometries regardless of pose while producing high‐quality scans consistently. The study achieved a significant time savings of ≈97%, reducing setup and processing time from 35 to just 1 min.

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Publication Details

Journal
Advanced Intelligent Systems
Published
2026-02-18
DOI
https://doi.org/10.1002/aisy.202501137
Primary Topic
Robot Manipulation and Learning
Type
article
Field-Weighted Citation Impact
0.00
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article

Intelligent Operator‐Independent Flexibility in Robotic Non‐Destructive Evaluation

Shaun McKnight, R. B. GOMES, Alastair Poole, Ewan Nicolson et al.
Advanced Intelligent Systems
Robot Manipulation and Learning
article

Intelligent Operator‐Independent Flexibility in Robotic Non‐Destructive Evaluation

Shaun McKnight, R. B. GOMES, Alastair Poole, Ewan Nicolson, Ehsan Mohseni, Vedran Tunukovic, Amine Hifi, Gavin Munro, Tom O’Hare, Charles MacLoed, Stephen Gareth Pierce
article en

Abstract

The non‐destructive evaluation (NDE) of high‐value components is commonly regarded as a bottleneck in the manufacturing industry. Even though robotic automation is leveraged these days to accelerate the process, productivity is still hindered by the limitations of robotic and automated systems requiring intensive calibrations and precise fixturing of inspection components. This restricts the systems’ flexibility and ability to adapt to uncertainties in part geometry, inspection process or changing environments . This study presents a system that is both flexible and adaptable, integrating 3D vision sensing and force‐position control with the human‐collaborative KUKA LBR robot. The system is designed for the geometry‐agnostic, precise delivery of ultrasonic NDE sensors, enabling the inspection of materials with varying geometries and surface profiles . The developed system demonstrated its efficacy by providing the user with the ability to inspect a given workpiece at a random pose without having prior knowledge of the component. Pose independence was proven with multiple scans producing consistent results, achieving high inspection sensitivity via detecting 100% of the fabricated defects in the scan region. This study has succeeded in investigating the suitability of flexible human‐collaborative manipulators for NDE and showcases the successful integration of an adaptable scanning system capable of identifying and scanning varying geometries regardless of pose while producing high‐quality scans consistently. The study achieved a significant time savings of ≈97%, reducing setup and processing time from 35 to just 1 min.

Advanced Intelligent Systems
University of Strathclyde (GB), Spirit AeroSystems (United States) (US), Spirit AeroSystems (United Kingdom) (GB)
Industry, innovation and infrastructure
Openalex Percentile: Top 52%
Robot Manipulation and Learning
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