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研究生: 曾世昌
ZENG,Shi-Chang
論文名稱: 電液伺服驅動並聯式運動平台之順滑模態反覆式學習控制
Sliding Mode Based Iterative Learning Control for an Electrohydraulic Servo Parallel Kinematic Platform
指導教授: 陳俊達
Chen, Chun-Ta
學位類別: 碩士
Master
系所名稱: 機電工程學系
Department of Mechatronic Engineering
論文出版年: 2013
畢業學年度: 101
語文別: 中文
論文頁數: 90
中文關鍵詞: 電液伺服驅動並聯式運動平台順滑模態反覆式學習控制
英文關鍵詞: Electrohydraulic Servo Parallel kinematic platform, Sliding-mode, Iterative learning control
論文種類: 學術論文
相關次數: 點閱:64下載:4
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  • 近年來並聯式機器人已廣泛應用於工業界,如機械加工、航空、太空飛行模擬及其他相關自動化整合應用等。因此完整建立電液伺服驅動並聯式運動平台之動態方程式,並設計一強健且具自我學習之智慧型控制器,使運動平台能達到精密定位及準確軌跡追隨,有其必要性。電液伺服驅動器本身為一種非線性系統,將其並聯組成六軸運動平台後,系統複雜度將大幅提高,故控制器設計尤其相對重要。本文中使用PID型反覆式學習控制器以及順滑模態反覆式學習控制器,實現電液伺服驅動並聯式運動平台之定位控制及動態軌跡追隨模擬。 研究結果顯示順滑模態反覆式學習控制器在平台控制定位及運動軌跡學習速率上,優於PID型反覆式學習控制器,且順滑模態反覆式學習控制器具有良好系統強健性。

    Recently, parallel robots are widely used in the machining, aerospace simulation, and other automation applications. Therefore, it is required to develop the dynamic models of the electro-hydraulic servo parallel kinematic platform. However, an electro-hydraulic servo system is a highly nonlinear such that it substantially increases the complexity of the parallel kinematic platform, of the design is thus important. In this paper, the PID iterative learning controller and the sliding-mode iterative learning controller are utilized to control the position and the trajectory tracking of the parallel kinematic platform. The simulation results show that the sliding-mode iterative learning controller is superior to PID iterative learning controller, especially in the reference position tracking and learning speed. Sliding-mode iterative learning controller not only can provide good positioning and iterative tracking abilities, but also is able to obtain the good robustness.

    中文摘 要..........................................i Abstract..........................................ii 誌 謝.............................................iii 目 錄.............................................iv 圖目錄............................................vii 表目錄............................................xii 符號說明..........................................xiii 第一章 緒論.........................................1 1.1 前言...........................................1 1.2 並聯式運動平台介紹...............................1 1.3 文獻回顧.......................................4 1.4 研究動機與目的..................................7 1.5 論文架構及研究方法...............................8 第二章 電液伺服系統建模..............................9 2.1 並聯式運動平台及驅動系統介紹......................9 2.2 電液伺服系統介紹................................12 2.3 電液伺服系統模型建立.............................13 第三章 並聯式運動平台系統動態模型......................25 3.1 準座標分析與Lagrange方程式簡介...................25 3.2 並聯式六軸平台之運動學分析........................25 3.3 並聯式六軸平台逆向動態推導........................29 3.3.1 平台系統動能及位能分析.........................29 3.3.2 Lagrange虛功原理.............................31 3.3.3 平台之動態方程式..............................32 第四章 反覆式學習控制器..............................37 4.1 反覆式學習控制器介紹.............................37 4.2 PID型反覆式學習控制器............................39 4.3 順滑模態理論介紹.................................42 4.4 順滑模態反覆式學習控制器..........................48 第五章 並聯式六軸平台動態控制模擬.......................51 5.1 PID反覆式學習控制器於電液驅動器軌跡追隨控制..........51 5.2 順滑模態反覆式學習控制器於電液驅動器軌跡追隨..........61 5.3 PID反覆式學習控制器於平台圓軌跡追隨控制..............71 5.4 順滑模態反覆式學習控制器於平台圓軌跡追隨控制..........79 5.5 PID-ILC與SMD-ILC比較討論.........................83 第六章 結論及未來方向..................................85 6.1 結論與未來方向....................................85 參考文獻.............................................86

    [1] Maxime Chalon , Thomas Wimb , Gerd Hirzinger, “ Torque and Workspace Analysis for Flexible Tendon Driven Mechanisms” , IEEE International Conference on Robotics and Automation , pp.691-698, 2010
    [2] The British engineer Eric Gough invented the Hexapod. http://www.parallemic.org
    [3] Lung-Wen Tsai , Robot Analysis , The mechanics of serial and parallel manipulators, John Wiley & Sons Inc. New York ,1999
    [4] OKUMA AMERICA CORPORATION -11900 Westhall -
    DriveCharlotte, NC 28278-PM600V, http://www.okuma.com/americas
    [5] Raghavan , “Stewart platform of general geometry has configurations” Trans. ASME J. Mechanical Design, Vol.115, No.2, pp.277-280, 1993
    [6] Geng, Z. and Haynes, L. S., “Six- degree-of-freedom active vibration isolation a Stewart platform mechanism” , J. Robotic System, Vol.10, No.5, pp. 725-744, 1993
    [7] Rennsimulator Hexatech / Cruden am Hockenheimring im Ferrari Zelt , http://tech2.in.com/video-rennsimulator-hexatech-cruden
    [8] D. Stewart, “A Platform with Six Degrees-of-Freedom” , Proc. Inst. Mech. Eng., vol. 180, Pt. 1, pp.371-386, 1965
    [9] C.H. Yang, T.W. Lee, “Feasiblity study of a platform type of robotic manipulators from a kinematic viewpoint” , J. Mechanisms, Transmissions and Automation in Design, Vol. 106, 1984
    [10] E.F. Fichter, “A Stewart Platform-based manipulator: General Theory and Practcal Construction” , J. Robotics and Research, Vol. 5, pp. 157-182, 1988
    [11] Merlet, J.P., “Singular configurations of parallel manipulators and geometry” , J. Robotics and Research,Vol.8, No.5, pp.45-56, 1989
    [12] Gosselin, C.M, “Determination of the workspace of 6-dof parallel Manipulators” , ASME Design Automation,, Vol.20, pp. 321-326, 1989
    [13] C. C.Nguyen,Z.L.Zhou, and S. S. Antrazi., “Efficient Computation of Forward Kinematics” , IEEE Int. Conf. on Robotics and Automation, Vol. 3,No2 pp.869-874,1991
    [14] M. Honegger, A. Codurey, E. Burdet, “Adaptive Control of the Hexaglide, a 6 dof Parallel Manipulator” , IEEE International Conference on Robotics and Automation, pp.543-548, April 1997.
    [15] Ronen, B.H., Moshe, S., and Shlomo, D., “Kinematics,dynamics and construction of a plenarily actuated parallel robot,” Roboticsand Computer-Integrated manufacturing, Vol.14, No.2, pp. 163-172
    [16] Chun-Ta Chen “Reconfiguration of a parallel kinematic manipulator for the maximum dynamic load-carrying capacity”, International Conference on Robot, Vision and Signal IEEE RVSP.2011
    [17] C. Reboulet, T. Berthomieu, “Dynamic Models of Six Degree of Freedom Parallel Manipulators” , 91 ICAR., Fifth International Conference, Vol. 2, pp. 1153-1157, 1991
    [18] G. Lebret, “Dynamic Analysis and Control of Stewart Manippulator” , J. Robotic Systems , vol. 10, pp.629-655, 1993.
    [19] Chun - Ta Chen “ A Lagrangian Formulation in Terms of Quasi-Coordinates for the Inverse Dynamicsof the General 6-6 Stewart Platform Manipulator ” , JSME Advanced -Robotics 22 pp 705–730-2003
    [20] Chun-Ta Chen & Jyh-Chyang Renn & Zong-Yuan Yan,“Experimental identification of inertial and friction parameters for electro- hydraulic motion simulators” , Science Direct Mechatronics 21 pp. 1–10,2011
    [21] E. Baily and A. Arapostathis, “Simple sliding mode control scheme applied to robot manipulator, ” , J. Robotics and Research ,Vol.45, pp.1197-1209,1987
    [22] J. J. E. Slotine and S. S. Sastry, “Tracking control of nonlinear systems using sliding surfaces with application to robot manipulators” , J. Robotics and Research,, Vol. 38, pp. 465-492,1983.
    [23 ] Wen Chen,Yang-Quan Chen, Chih-Ping Yeh, “Robust iterative learning control via continuous sliding-mode technique with validation on an SRV02 rotary plant” ,Elsevier Ltd. Mechatronics 22 pp588–593,2012
    [24] Chun-Ta Chen and Te-Tan Liao, “Optimal Path Programming of the Stewart Platform Manipulator Using the Boltzmann Hamel–d’Alembert Dynamics Formulation Model” , Advanced Robotics 22 705–730,2008
    [25] Wen Chen and Yang-Quan Chen, “Robust Iterative Learning Control for Output Tracking via Second-order Sliding Mode Technique” ,American Control Conference, pp68–75-2010
    [26] Hao Xiao-hong & Zhao Jing, “Algorithm of Iterative Learning Control Based on the Sliding Mode Variable Structure Control” , Advances in Mechanical and Electronic Engineering, 2012LNEE 177, pp. 345–350
    [27] Shao-Juan Yu, Feng Pan, “Practical Design of an IterativeLearning Sliding Mode Controller for Electro-Pneumatic” , International Journal of Information Technology ,Vol. 11 No. 5 pp. 45–50
    [28] 李榮仁, “以準座標規劃史都華平台的動態模擬”,逢甲大學自動控制系碩士論文 2002
    [29] 宋開泰, 何國強, “六連桿平行華動機之適應控制器設計”,國立交通大學電機與控制工程學系碩士論文, 1998
    [30] 林育群, “以模糊類神經網路於六軸平台運動分析” , 國立交通大學電機與控制工程學系碩士論文,1999
    [31] 麥德輝,“史都華平台之複合式滑動模式控制” ,國立雲林科技大學電機工程系碩士論文,2002
    [32] 劉翰綸,“反覆式學習於史都華平台應用” ,大葉大學機電自動化研究所碩士論文,2005
    [33] 任志強, 「伺服液氣壓學」,2004,雲林科技大學機械系編譯
    [34] 張祖烈, 「液壓伺服控制」,2004,全威圖書出版
    [35] 陳秉昌, “低速高精度液壓系統伺服位置控制之研究” , 國立成功大學機械工程系碩士論文,2002
    [36] 李建成, “發表基於順滑模態反覆學習之衛星定位控制” ,西安衛星测控中心研究學報,2012
    [37] 王岩, “ 模糊滑模反覆學習控制算法在液壓系统中應用” ,北京航空大學2007
    [38] 胡云安, “以適應性滑模反覆學習控制器於精密機械手臂控制應用” ,中國海軍航空學院學報2011

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