Multi-UAV trajectory planning for 3D visual inspection of complex structures
arXiv:2204.10070 · doi:10.1016/j.autcon.2022.104709
Abstract
The application of autonomous UAVs to infrastructure inspection tasks provides benefits in terms of operation time reduction, safety, and cost-effectiveness. This paper presents trajectory planning for three-dimensional autonomous multi-UAV volume coverage and visual inspection of infrastructure based on the Heat Equation Driven Area Coverage (HEDAC) algorithm. The method generates trajectories using a potential field and implements distance fields to prevent collisions and to determine UAVs' camera orientation. It successfully achieves coverage during the visual inspection of complex structures such as a wind turbine and a bridge, outperforming a state-of-the-art method by allowing more surface area to be inspected under the same conditions. The presented trajectory planning method offers flexibility in various setup parameters and is applicable to real-world inspection tasks. Conclusively, the proposed methodology could potentially be applied to different autonomous UAV tasks, or even utilized as a UAV motion control method if its computational efficiency is improved.
Revised abstract, references and captions, 17 pages
References in corpus (3)
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Cited by in corpus (8)
- A Review on Viewpoints and Path-planning for UAV-based 3D Reconstruction
- Ant Colony Optimization for Cooperative Inspection Path Planning Using Multiple Unmanned Aerial Vehicles
- Distributed Control for 3D Inspection using Multi-UAV Systems
- Automated Real-Time Inspection in Indoor and Outdoor 3D Environments with Cooperative Aerial Robots
- Rolling Horizon Coverage Control with Collaborative Autonomous Agents
- Model predictive altitude and velocity control in ergodic potential field directed multi-UAV search
- Ergodic Trajectory Optimization on Generalized Domains Using Maximum Mean Discrepancy
- Invisible Servoing: a Visual Servoing Approach with Return-Conditioned Latent Diffusion