Sep 2026· European Conference on Electrical Engineering and Computer Science· Vol 14327, pp. 1432737 - 1432737-9· 0 citations· 16 references
Engineering
Abstract
To address the challenges of non-Destructive Testing (NDT) on industrial pipelines operating in high-altitude, high-risk, and non-planar wall environments, this paper presents a high-precision control and remote inspection system for an industrial pipeline NDT robot. The system employs an STM32H743VIT6 as the core controller, integrating MPU9250- based attitude sensing, PID closed-loop control, and ESP32-C3 Internet of Things (IoT) communication technologies to achieve integrated wall adhesion, attitude stabilization, precise motion control, and real-time remote monitoring. By implementing complementary filtering for attitude calculation and positional PID parameter tuning, the proposed system overcomes the common limitations of traditional wall-climbing robots, including attitude drift, low control accuracy, and insufficient operational intelligence. Furthermore, a high-precision phased array ultrasonic flaw detection sensor combined with an FPGA-based signal processing module enables accurate identification of pipeline defects. Experimental results demonstrate that the robot achieves an attitude control error of≤0.05°, a motion speed stabilized within 0.8-1.2cm/s, a pipeline defect detection accuracy of 0.005mm, and an endurance of ≥8 hours. Compared with conventional equipment, the proposed system exhibits superior adaptability to complex industrial pipeline walls, control stability, and inspection efficiency. It effectively replaces manual inspection for high-altitude pipeline flaw detection and provides a reliable technical solution for intelligent operation and maintenance of industrial pipelines.
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The intelligent follow-up robot designed in this paper can autonomously and accurately follow maintenance personnel to transport wheel chocks, tools, equipment, and aircraft materials, significantly improving the automation, intelligence, and safety of aircraft maintenance operations.
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