Aerial service robots for visual inspection of thermal power plant boiler systems

Applied Robotics for the Power Industry(2012)

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摘要
This work focuses on the use of MAVs for industrial inspection tasks. An efficient flight controller based on a model predictive control paradigm is developed. It allows for agile maneuvers in confined spaces while incorporating delays, saturations and inaccurate vehicle state estimates only available at low rate. The fast gradient method is used to solve the optimization problem and meet real-time constraints, given limited computational resources. The vehicle state is estimated from an on-board forward-looking camera system, tightly fused with inertial measurements. Experiments using a realistic industrial mock environment demonstrate the effectiveness, robustness and limitations of the proposed approach. The results show that egomotion estimation is robust under rapid motion, in poorly textured environments and under challenging lighting conditions. When coupled with the model predictive controller, the system requires only limited computational resources and sufficiently tracks an arbitrary trajectory.
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关键词
aerospace robotics,aircraft control,automatic optical inspection,boilers,cameras,delays,electricity supply industry,gradient methods,industrial robots,mobile robots,motion estimation,predictive control,real-time systems,robot vision,service robots,state estimation,thermal power stations,mav,aerial service robots,agile maneuvers,arbitrary trajectory,computational resources,delay incorporation,egomotion estimation,fast gradient method,industrial inspection tasks,industrial mock environment,inertial measurements,lighting conditions,limited computational resources,model predictive control paradigm-based flight controller,on-board forward-looking camera system,optimization problem,real-time constraints,textured environments,thermal power plant boiler systems,vehicle state estimation,visual inspection,inspection,model predictive control,visual-inertial motion estimation,real time systems
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