Research on Aircraft Autopilot Systems and Remote Control Technology for Commercial Aircraft

Authors

  • Yuze Xiao

DOI:

https://doi.org/10.61173/xxy7jy67

Keywords:

Autonomous driving system, remote control system, intelligent flight

Abstract

This article provides a comprehensive review of commercial aircraft autopilot systems and remote control technologies. With the rapid development of artificial intelligence, the Internet of Things, and 5G communication technologies, aircraft piloting is undergoing a profound transformation toward automation and remote control. This article briefly describes the components and operating modes of the autopilot system, introduces the shock wave adaptive control system, and lists several technical and process optimization methods for shock wave adaptive control systems. It also describes the current status and development trends of flight management systems. It also examines the components of the remote control system and the optimization technologies for satellite and very high frequency communications within the communication link. It finds that intelligent perception, autonomous decisionmaking, and high-performance communication links are essential foundations for efficient and autonomous aircraft operation. This article can provide a reference for the design, development, and engineering application of intelligent flight systems and remote-controlled flight systems for future commercial aircraft.

References

[1] W. Sun, S. Xing, J. Yi, J. Xu, S. Zhang, Dynamic adjustment technology of satellite data transmission based on satellite measurement and control link.. Journal of test technology. 2021, 35(03),272-276

[2] L. Guo, J. Song, Design of a VHF communication system for civil aircraft. Civil aircraft design and research. 2021, (02),62-66

[3] S. C. Künnecke, S. Vasista, J. Riemenschneider, R. Keimer, & M. Kintscher, Review of adaptive shock control systems. Applied sciences. 2021, 11(2), 817

[4] D. Liu, Research on flight autopilot system. Science and technology communication. 8(02),164-165(2016)

[5] J. Yang, Typical aircraft autopilot system working mode management and control. Equipment management and maintenance. 2021, (21),136-137

[6] G.Piotr, Z. Kamil , In-flight testing of the integrated mission management system[J]. Aircraft Engineering and Aerospace Technology. 2025,97(1):13-27

[7] D. Wang,Q. Chen,Z. Chi, J. Xu, Current status and prospects of flight management system development. Avionics technology. 2025, 56(01),31-37

[8] Z. Chi, Q. Chen, D. Wang, J. Xu, Analysis and prospect of development trend of interconnected flight management system. Aviation computing technology. 2025, 55(01),129-134

[9] M. Wang, G. Xiao, G. Wang, Single pilot driving mode technology. Acta Aeronautica Sinica. 2020, 41(04),202-220

[10] Y. Luo, M. Wang, G. Xiao, G. Wang, Conceptual Architecture of Remote Piloting Mode for Commercial Aircraft. Transactions of Nanjing University of Aeronautics and Astronautics. 2020, 37(02),274-287

[11] W. Fu, Analysis of Optical satellite communication technology and its development trend[J]. SHS web of conferences. 2022,144

[12] A. Hijosa, et al. Space-Based Vhf, a Bridge to the Future. 2025 Integrated Communications, Navigation and Surveillance Conference (ICNS). IEEE, 2025.

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Published

2025-12-19