Structured H∞ control for an aircraft longitudinal motion

被引:0
|
作者
Pang A.-P. [1 ]
Zhou H.-B. [1 ]
Yang J. [1 ]
机构
[1] College of Electrical Engineering, Guizhou University, Guiyang
来源
Yang, Jing | 1600年 / Editorial Department of Electric Machines and Control卷 / 24期
关键词
Bandwidth; Boeing aircraft; H[!sub]∞[!/sub] synthesis; Robustness; Stability; Structured control;
D O I
10.15938/j.emc.2020.10.015
中图分类号
学科分类号
摘要
Aiming at the longitudinal motion control of the large aircraft such as the stability requirements, disturbance rejection performances, system bandwidth limitation, altitude maintenance and tracking performances, we propose a control strategy using structured H∞ control. The theory proposed in this paper can maintain the benefits of the traditional H∞ synthesis theory, taking multiple performance requirements into consideration comprehensively, and design the structure of the controller according to the actual demand, it ensuring the controller a low order and complexity. It took Boeing series aircraft as an example, and designed a structured H∞ controller satisfying the integrated design objectives. Also, it verifies the performance of the control design by simulation analysis and the results show that the structured H∞ controller designed in this paper has a better tracking and stability performance. The design idea of the structured H∞ controller in this paper is a reference for other controller design of general systems, and the selection method of the weight function is a design example for other structured H∞ controller design. © 2020, Harbin University of Science and Technology Publication. All right reserved.
引用
收藏
页码:139 / 143
页数:4
相关论文
共 19 条
  • [1] FRANKLIN G, FRANKLIN POWELL, Et al., 动态系统的反馈控制, pp. 154-173, (2004)
  • [2] LIANG Y W, XU S D, TSAI C L., Study of VSC reliable designs with application to spacecraft attitude stabilization[J], IEEE Transactions on Control Systems Technology, 15, 2, (2007)
  • [3] STEVENS B L, LEWIS F L., Aircraft control and simulation:dynamics,controls design,and autonomous systems, Aircraft Engineering & Aerospace Technology, 76, 5, (2004)
  • [4] ZOU A M, RUITER A H J D, KUMAR K D., Finite-time attitude tracking control for rigid spacecraft with control input constraints, IET Control Theory & Applications, 11, 7, (2017)
  • [5] SCHILLING K, WALTER J, KOUNEV S., Spacecraft autonomous reaction capabilities,control approaches,and selfaware computing, pp. 687-695, (2017)
  • [6] SUN R, MATOLAK D W, RAYESS W., Air-ground channel characterization for unmanned aircraft systems-part IV:airframe shadowing, IEEE Transactions on Vehicular Technology, 99, (2017)
  • [7] LOPEZ M J, GARCIA L., Variable structure hinfinity controller for aircraft, International Journal of Scientific Engineering and Technology, 6, 5, (2017)
  • [8] NAVARRO-TAPIA D, SIMPLICIO P, IANELLI A, Et al., Robust flare control design using structured H<sub>∞</sub> synthesis: a civilian aircraft landing challenge, The 20th IFAC World Congress, 50, 1, pp. 3971-3976, (2017)
  • [9] pp. 78-85, (2010)
  • [10] GAHINET P, APKARIAN P., Frequency-domain tuning of fixed-structure control systems, Proceedings of 2012 UKACC International Conference on Control, pp. 178-183, (2012)