Unmanned aerial vehicles (UAVs) are being increasingly established for autonomous contacted-based inspection of industrial assets, reducing the risk of errors by human operators. However, challenges remain in the navigation under unreliable Global Navigation Satellite System (GNSS) signals, or in the detection and interaction with the inspection surface, which limits the autonomy level of current UAV industrial technologies. This paper presents a semi-autonomous framework which combines automated target detection and interaction in GNSS-denied environments, with supervision commands by a human operator, to increase both safety and reliability. Our framework is composed of: (i) a camera-based onboard odometry solution for positioning the UAV in GNSSdenied conditions, (ii) a target-detection and filtering algorithm which estimates the orientation and position of the interaction target and (iii) a visual servoing strategy for approaching and contacting the target. The proposed framework is developed completely in ROS, and can be used with any commercial UAV. The framework is validated through outdoor flights, where a UAV detects and contacts a target on a vertical pipe.


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    Title :

    Semi-Autonomous Interaction Framework for Contact-Based Operations with Commercial UAVs IN GNSS-Denied Environments


    Contributors:
    Gonzalez-Morgado, A. (author) / Zhang, Q. (author) / Damigos, G. (author) / Cuniato, E. (author) / Hui, T. (author) / Sahin, E. (author) / Nikolakopoulos, G. (author) / Siegwart, R. (author) / Fumagalli, M. (author) / Ollero, A. (author)


    Publication date :

    2025-05-14


    Size :

    3562691 byte





    Type of media :

    Conference paper


    Type of material :

    Electronic Resource


    Language :

    English



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