引用本文:谷志锋,朱长青,张晨光,刘璞.双重强跟踪滤波励磁及速度非线性鲁棒控制[J].控制理论与应用,2014,31(1):85~92.[点击复制]
GU Zhi-feng,ZHU Chang-qing,ZHANG Chen-guang,LIU Pu.Nonlinear robust excitation and speed control based on the double strong tracking filter[J].Control Theory and Technology,2014,31(1):85~92.[点击复制]
双重强跟踪滤波励磁及速度非线性鲁棒控制
Nonlinear robust excitation and speed control based on the double strong tracking filter
摘要点击 1840  全文点击 1590  投稿时间:2013-03-25  修订日期:2013-06-19
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DOI编号  10.7641/CTA.2014.30249
  2014,31(1):85-92
中文关键词  强跟踪滤波  非线性鲁棒控制  L2增益抑制  励磁控制  速度控制
英文关键词  strong tracking filter  nonlinear robust control  L2 disturbance attenuation  excitation control  speed control
基金项目  军械工程学院重点基金资助项目(YJJ10031); 军械工程学院基金资助项目(YJJXM12046).
作者单位E-mail
谷志锋* 军械工程学院车辆与电气工程系电力工程教研室 gzfgohappy@163.com 
朱长青 军械工程学院  
张晨光 军械工程学院  
刘璞 军械工程学院  
中文摘要
      针对传统移动电站存在励磁、调速控制相互独立、缺乏联系的不足, 研究和建立了励磁及机电复合调速非线性模型, 提出了基于状态参数双重强跟踪滤波估计的非线性鲁棒综合控制策略. 采用双重强跟踪滤波的方法, 实现了模型中关键状态参量的间接获取, 依据多输入多输出系统的精确反馈线性化、非线性鲁棒控制理论, 对励磁、机电复合调速综合控制律进行了推导, 并进行了仿真验证. 仿真结果表明: 负载突变时, 强跟踪滤波能够快速跟踪和估计状态参数; 在外部干扰存在情况下, 通过求解线性矩阵不等式, 本文得到的控制律在保证励磁、转速控制系统稳定的同时, 能够实现L2增益干扰抑制.
英文摘要
      To deal with the lack of associated control between the excitation system and the speed system, we build the nonlinear mathematical model for the moving power station and propose the excitation and speed synthetic nonlinear robust control. The key state parameters of the mathematical model are estimated by the double strong tracking filter (DSTF). According to the exact feedback linearization and the nonlinear robust control method of the multi-input and multi-output system, the synthetic control law of the excitation and electro-mechanical speed control system is obtained by solving the linear matrix inequality (LMI), and is testified by simulation. Simulation results show that the DSTF can track and estimate the values of the state parameters rapidly when the load increased suddenly, and the nonlinear robust synthetic control not only can stabilize the excitation system and the speed control system, but also can realize the L2 disturbance attenuation.