摘要
混合驱动机器的基本思想是采用常规电机为系统提供主要动力,伺服电机起运动调节作用,两种类型的输入运动通过一个多自由度机构合成后产生所需要的输出运动。因为伺服电机具有良好的可控性,所以可以使用伺服电机与常规电机配合驱动机器运动,通过编程控制伺服电机运动规律,达到柔性输出的目的,以适应不同的加工工艺和多种产品的需要。其兼容了由定转速电机驱动的传统机构高效率、高承载力及伺服驱动机构柔性可调的优点,弥补了传统机械缺乏柔性的缺点,比较理想地解决了柔性化与保持高速、高效、高承载力这一对矛盾,为现代机械设计提出了一个新思路。
鉴于混合驱动机器的理论研究的重要性和有待于尽快转化成实际产品,在冲压工业上发挥其显著功效。将理论与实践相结合,验证其可靠性和先进性。本文着重进行以混合驱动压力机为潜在应用背景的实验研究,主要有:以混合驱动机器的理论研究为依据,进行尺度参数的优化,确定实验机构的尺度参数,进行运动学和动力学仿真;对混合驱动压力机进行了准静态动力分析,给出了混合驱动压力机的动力和功率分配模型,并对拉深工艺阻力与伺服电机的功率分配的关系进行了研究;采用变结构控制策略,对混合驱动实验机构进行全闭环运动控制,实现对混合驱动压力机稳定的轨迹跟踪控制和仿真研究;提出基于逆运动学理论作为误差校正模型的混合驱动压力机运动控制方法,并进行实时在线误差补偿的运动控制方法研究,开发了混合驱动压力机运动控制实时在线误差补偿的运动控制软件,为提高运动输出的主动跟随运动精度,提供了理论保证;进行了混合驱动压力机实时在线误差补偿控制的实验研究,利用运动误差实时在线补偿控制软件分别对混合驱动压力机实验机构进行了无工作载荷和有工作载荷的实验研究,为下一步进行混合驱动压力机的样机研制奠定了基础。
最后,对混合驱动压力机的基础理论研究和样机的试制,提出了一些建议和展望。
The guideline of hybrid driving machine adopts regular motors to provide main power and adopting servo motors to adjust motion. The two types of motion inputs are synthesized through a multi-degree of freedom motion mechanism and output the motion required. Since servo motor is easy to be controlled, it can be used to drive motion mechanism with regular motor. By controlling the motion of servo motor with programs, the machine can output flexibility. It is therefore can meet the needs of various processes and products. The mechanism combines such advantages of regular motors as high efficiency and high capacity, and the flexibility of servo motors. It also makes up the traditional mechanism’s disadvantage of lacking flexibility and relatively solves the contradiction of flexibility versus high speed, high efficiency, and high capacity. This dissertation proposes a new guideline for modern design of mechanism.
In view of the importance of the research of hybrid driving machine, it is necessary to transform the theoretical research into real products and to bring the advantages into practices. It is also necessary to combine the theory and practice to validate the availability and nature of advance. The dissertation is focused on the experimental research on the ground of potential applications of hybrid driving presses. The key researches include the following. (1) Based on the theoretical research of hybrid driving machine, the measures of scale is optimized, the measures of scale of the experimental mechanism is defined, and the simulation of kinematics and kinetics is processed. (2) The quasi-static dynamic analysis of hybrid driving press is processed; the distribution model of the drive and power of hybrid driving press is given, and the relation between the resistance of drawing process and the power distribution of servo motor is studied. (3) The strategy of variable structure control to process closed-loop control on experimental mechanism is adopted, and the steady tracking control on hybrid driving mechanism is studied. (4) A model based on the inverse kinematics optimization theory to modify errors is suggested and the motion control method for the motion control of hybrid driving press that can compensate errors real-time on-line is given. A motion control software is also developed to realize the real-time on-line error compensation for hybrid driving press. This mean theoretically ensures the accuracy of active following motion of theoutput motion. (5) The experimental study on the real-time on-line error compensation for hybrid driving press is procesed and the software mentioned in (4) to study the experimental mechanism of hybrid driving press with and without serving load respectively is used. The foundation of the research and development is established for the sample hybrid driving press in the next stage.
Finally, some suggests and prospect on the theoretical research and development of sample of hybrid driving press is proposed in this dissertation.
引文
[1] 郭为忠,杜如虚等,现代机器的柔性化与分类研究,机械设计与研究,2004(增刊):37-40。
[2] 张青,邹慧君等,广义执行机构的特点及应用,机械设计与研究,2004(增刊):253-256。
[3] 孔建益,W.Funk 等,受控机构学的研究现状和发展展望,中国机械工程,1995,9(1):55-57。
[4] 何德誉,曲柄压力机,北京:机械工业出版社,1987。
[5] 何德誉,专用压力机,北京:机械工业出版社,1989。
[6] в.и. 符拉索夫,锻造冲压曲柄压力机,上海:上海科学技术文献出版社,1988。
[7] 张新华,实现轨迹创成的混合驱动可控机构分析与综合,博士学位论文,天津大学,2002。
[8] 陆永辉,混合输入机构驱动曲柄压力机的研究,硕士学位论文,天津大学,2001。
[9] 李辉,混合驱动可压力控机的基础理论研究,博士学位论文,天津大学,2003。
[10] 卢宗武,可压力控机的研究,硕士学位论文,天津大学,2002。
[11] 孔建益,W.Funk.具有一个受控原动件的五杆机构精确实现给定函数的研究,中国机械工程,1996,7(专刊):106~108。
[12] 孔建益,W.Funk.具有一个受控原动件的五杆机构精确实现给定传动比的研究,武汉冶金科技大学学报,1997,20(2):189~193。
[13] 孔建益,W.Funk 等,受控机构学的研究现状和发展展望,中国机械工程,1995,9(1):55-57。
[14] 周双林, 邹慧君等,平面闭链五杆机构柔性工作空间的研究,机械工程学报,2000,Vol.36,No.11:10~15。
[15] 周双林, 邹慧君等,可控机构的研究现状及发展展望,机械工设计与研究,2000,16(增刊):35-36。
[16] 方新国,平面两自由度七杆机构混合驱动机的设计理论及实验研究,博士学位论文,上海交通大学,2003。
[17] 郭为忠,杜如虚,基于混合机构的新型可压力控机研究,机械设计与研究,2002,18(增刊):36-39。
[18] 何凯,金振林等,新一代机械式可控金属压力机的设计,机械设计与研究,2004,(增刊):28-30。
[19] 曹惟庆,连杆机构的分析与综合[M],科学出版社,2002,5。
[20] 张策,机械动力学,高等教育出版社,200,4。
[21] 魏宏,谢进,陈永等,混合驱动平面五杆机构的点位对应综合及其 PD 控制,机械设计与研究,2004(增刊):247-248。
[22] 郭庆鼎,王成元,交流伺服系统,机械工业出版社,1994,7。
[23] 夏超英,交直流传动系统的自适应控制,机械工业出版社,1998,5。
[24] 周绍英,储方杰,交流调速系统,机械工业出版社,1996,9。
[25] 齐占庆,机床电气自动控制,机械工业出版社,1987,6。
[26] 王懋瑶,液压传动与控制教程,天津大学出版社,1987,2。
[27] 孟彩芳, 机械原理电算分析与设计, 天津:天津大学出版社,1999。
[28] 王积伟,吴振顺,控制工程基础,高等教育出版社,2001,8。
[29] 周求湛,钱志鸿,刘萍萍,戴宏亮,虚拟仪器与 LabVIEWTM7 Express 程序设计,北京航空航天大学出版社,2004,6。
[30] 雷振山,LabVIEWTM7 Express 实用技术教程,中国铁道出版社,2004,6。
[31] Panasonic 交流伺服电机驱动器(MINAS A 系列)使用说明书。
[32] 贠今天,未确知环境下刚----柔机械臂主动柔顺控制理论与实验研究,博士学位论文,天津大学,2002,12。
[33] 朱建忠,李宁,李圣怡,同心圆光栅二自由度误差测量系统,光学精密工程,2000,8(1):91-95。
[34] 岳明君,李春阳,宋现春,孙钢,滚珠丝杠精磨误差的实时补偿与控制,中国机械工程,1999,10(1):24-25。
[35] 池瑞楠,胡跃明,胡冬须,基于解耦控制的非完整移动机器人实时轨迹跟踪,机器人,2001,23(3):256-260。
[36] 大熊·繁[日],机器人控制[M],北京:科学出版社。
[37] 姜春福,余跃庆,基于神经网络参数自整定 PID 的双臂机器人协调操作的轨迹跟踪控制,机械传动,2003,27(1):6-10。
[38] 熊有伦,机器人学,北京:机械工业出版社,1993。
[39] 蔡光起,胡明等. 机器人化三腿磨削机床的研制, 制造技术与机床, 1998(10): 4-6
[40] 蔡光起,原所先等. 三自由度虚拟轴机床静力学及动力学的若干研究, 中国机械工程, 1999, 10(10): 1108-1111。
[41] 陶永华,尹怡欣,葛芦生,新型 PID 控制及其应用,北京:机械工业出版社,1998。
[42] 孙迪生,王炎,机器人控制技术,北京:机械工业出版社,1997。
[43] 黄田,李曚,张大卫等,4 自由度混联机器人,国家发明专利,申请号:03105161.8,2003.3。
[44] 刘丽冰,刘又午,赵小松,章青等,加工中心在线检测误差补偿技术研究,中国机械工程, 2003, 11(3):313-316。
[45] 刘又午,刘丽冰,赵小松等,数控机床误差补偿技术研究,中国机械工程, 1998, 9(12): 48-51。
[46] 刘丽冰,加工中心在线检测误差补偿关键技术研究,博士学位论文,天津大学,1998。
[47] 苏文敬,吴立成,孙富春等,空间柔性双臂机器人系统建模、控制与仿真研究,系统仿真学报,2003,15(8):1098-1105。
[48] 邓三鹏,章青,幺子云,能够进行热补偿的加工中心在线检测软件的研究,组合机床与自动化加工技术,2003,(9):61-64。
[49] 章青,王国峰,刘又午等,提高在线检测精度的补偿技术,制造技术与机床,1999(6):48-51。
[50] 张志飞,多轴数控机床热误差与几何误差建模及补偿技术的应用,博士学位论文,天津大学,2000。
[51] 王国利,韩建达,柔性机械臂基于观测的逆动力学轨迹跟踪控制,机器人,1999,21(3):177-183。
[52] 来新民,曾子平,黄田,林忠钦等,神经网络在激光位移传感器误差补偿中的应用,中国机械工程, 1999, 10(8):899-902。
[53] 黄田,王洋,倪雁冰等. 3-HSS 并联机床总体布局方案及运动学设计理论浅析, 全国生产工程第 8 届学术大会暨第三届青年学术会议, 威海, 1999: 221-226
[54] 程光蕴,贺惠农,两自由度连杆机构精确实现平面轨迹的研究,东南大学学报,1990,Vol.20,No.3:7~12。
[55] 周双林,实现轨迹的混合驱动五杆机构设计理论及其实验研究,博士学位论文,上海交通大学,2001。
[56] 周双林,邹慧君,姚燕安等,混合输入五杆机构构型的分析,上海交通大学学报,2001,35(7):1045-1048。
[57] 周洪,邹慧君,王石刚,混合输入型五杆轨迹机构的分析与设计,上海交通大学学报,1999,33(7):865-869。
[58] 周洪,可控机构的设计理论及其应用研究,博士学位论文,上海交通大学,2000。
[59] 刘建琴,弹性连杆机构创成轨迹精度控制的理论与实验研究,博士学位论文,天津大学,2000。
[60] J.Rees Jones. Some Selection Issues in Non-Uniform Motion Generators for High Speed Applications, IMechE, Engineering Science Division Seminar 1987.
[61] Tokuz L.C., Hybrid machine modeling and control, Ph.D. Thesis, Department of Mech., Marine and Production Eng., Liverpool Polytechnic, UK, 1992.
[62] Tokuz L.C., JonesJ.R., Power Transmission and Flow in the Hybrid Machines,The 6th International Machine Design and Production Conf..,1994,MENU,ANKARA,TURKEY:209-218.
[63] Tokuz L. C, A Design Guide for Hybrid Machine Applications, Tr. J. of Engineering and Environment Sciences, 1997,21:1-11.
[64] Tokuz L.C., Uyan S., Modeling, Simulation and Control of a Four-BarMechanism with a Brushless Servo Motor.
[65] Tokuz L.C, Jones J.R. Programmable Modulation of Motion Using Hybrid Machines, Eurotech Direct'91-ImechE, European Engineering and Technology Transfer Congress, 414/071,1991,85-91.
[66] Greenough J.D., Jones J.R. etc, Design of Hybrid Machines, Proceeding of the 9th IFToMM World Congress, 1995,2501-2505
[67] Connor A. M. etal, The Synthesis of Hybrid Five-bar Path Generating Mechanisms Using Genetic Algorithms. Genetic Algorithms in Engineering System: Innovations and Application, 1995,313-318.
[68] P. L. Tso, K. C. Liang. A Nine-bar Linkage for Mechanical Forming Presses. International Journal of Machine Tools & Manufacture. 2002,42:139-145.
[69] W. M. Hwang, Y. C. Hwang, S. T. Chiou, A Drag-link Drive of Mechanical Presses for Precision Drawing, International Journal of Machine Tools & Manufacture. 1995,35: 1425-1433.
[70] Youcef-Toumi, K and A. T. Y. Kuo, High-speed Trajectory Control of Derict-drive Manipulators, IEEE Trans. On Robotics and Automation, 1993,9(1),102-108。
[71] Ghorbel, F. Modeling and PD Control of A Closed-chain Mechanical System. Proceeding of the 34th Conference on Decision & Control, New Orleans, LA USA, 1995,540-542.
[72] Lin, M-C and J-S Chen, Experiments Toward MRAC Design for Linkage System, Mechatronics, 1996, 6(8), 933-953.
[73] L. S Guo and Q. Zhang, Adaptive Trajectory Control of A Two DOF Closed-chain robot,Proceedings of the American Contorl Conference, Arlington, ,VA June25-27,2001.
[74] FARZAD P, MATTIAS P K, Adaptive Control of Dynamic Mobile Robots with Nonholonomic Constraints, Computers and Electrical Engineering, 2002,(28):241-253.
[75] JIANG Z P, HENK N R., Tracking Control of Mobile Robots: A Case Study in Backstepping, Automatica, 1997,32(7): 1393-1399.
[76] MOU J. Ricbard Liu C., A Method for Enbancing the Accuracy of CNC Machine Tools for On-line Machine Iospection. Journal of Manufacturing System, 1992,11(4):11-18.
[77] NI J., WU S M., An on-line Measurement Technique for Machine Volumetric Error Compensation, Transaction of the ASME Journal of Engineering for Industry, 1993,115(2):85-92.
[78] Ali Kirecci, L. Canan Dulger, A Study on A Hybrid Actuator, Mechanism Machine Theory, 2000,35(2):1141-1149.
[79] Connor A. M. et, al, The Synthesis of Hybrid Five-bar Path Generating Mechanisms Using Genetic Algorithms, Genetic Algorithms in Engineering System: Innovations and Application, 1995,313-318.
[80] Connor A. M. et, al, The Kinematic Synthesis of Path Generating Mechanisms Using Genetic Algorithms, Genetic Algorithms. Artificial Intelligence in Engineering 1995,238-244.
[81] Connor A. M., The Synthesis of Hybrid Mechanisms Using Genetic Algorithms, Ph. D. Thesis,Liverpool Polytechnic,1996.
[82] Herman J, van de Straete, Joris de Schutter, Hybrid Cam Mechanisms, IEEE/ASME Transactions on Mechatronics,1996,1(4):284-289.
[83] Yan Hongsen, M. K.Fong, An Approach for Reducing the Peak Acceleration of Cam-follower System Using A B-spline Representation, Journal of the Chinese Society of Mechanical Engineers(Taiwan), 1994,15(1):48-55.
[84] Yan Hongsen, M. H. Hsu, M. K.Fong, A Kinematic Approach for Eliminating the Discontinuity of Motion Characteristics of Cam-follower Systems , Journal of Applied Mechanisms and Robotics, 1994,1(2):1-6.
[85] Yan Hongsen, Chen Weiren, On the Output Motion Characteristics of Variable Input Speed Servo-controlled Slider-crank Mechanisms, Mechanism and Machine Theory,2000,35:541-561.
[86] Yan Hongsen, Chen Weiren, A Variable Input Speed Approach for Improving the Output Motion Characteristics of Watt-type Presses, International Journal of Machine Tools & Manufacture, 2000,40:675-690.
[87] Yan Hongsen, Soong Renchung, Kinematic and Dynamic Design of Four-bar Linkages by Link Counterweighing with Variable Input Speed,Mechanism and Machine Theory, 2001,36:1051-1071.
[88] Chew M., Plan M., Application of Learning Control Theory to Mechanisms, Part Ⅰ: Inverse Kinematics and Parametic Error Compensation; Part Ⅱ: Reduction of Residual Vibration in High-speed Electro-Mechanical Bonding Machines, Proc. of the 23th ASME Mech. Conf., Minneapolis Mn,Sept,1994.
[89] Yao Yan-an, Zhang Ce, Yan Hong-Sen, Motion Control of Cam Mechanisms,Mechanism with A Brushless Servo Motor Mechatronics,1997,7(4): 369-383.
[90] 姚燕安,凸轮机构的主动控制,博士学位论文,天津大学,1999。
[91] 姚燕安,颜鸿森,张策等,凸轮机构与伺服控制系统的集成设计,中国科学(E 辑),2000,30(6):524-530。
[92] 黄田,李亚等,一种三自由度并联机构几何误差建模、灵敏度分析及装配工艺设计,中国科学:E 辑.2002,32(5).-628-635
[93] 田汉民,混合输入五杆机构的分析与综合,硕士学位论文,天津大学,2001。
[94] 李永刚,混合驱动的拉深压力机与精压机的基础理论研究,硕士学位论文,天津大学,2003。
[95] 译自《日经机械》,伺服成形设备可提高小型精密冲压零件的生产率,机电信息,No.1,1998(总第 208 期)。
[96] 叶云岳,直线电机理论与应用,浙江大学研究生教材,1999。
[97] 叶云岳,新型直线驱动装置与系统,北京:冶金工业出版社,2000。
[98] 刘才山,王建明,阎绍泽等,滑模变结构控制在柔性机械臂中的应用,天津大学学报,1999,32(2):244-247。
[99] 樊晓萍,徐建闽,毛宗源等,受限柔性机器人臂的鲁棒变结构混合位置力控制,自动化学报,2000,26(2):176-183。
[100] 黄田,李曚,李占贤,仅含转动副的二自由度平动并联机器人机构,国家发明专利,专利申请号:01145160.2,1991
[101] 王积伟,陆一心,吴振顺等,现代控制理论与工程,高等教育出版社,2003,2。
[102] 吴军,李铁民,唐晓强,平面并联机构的鲁棒轨迹跟踪控制,清华大学学报,2005,45(5):642-646。
[103] 姚琼荟,黄继起,吴汉松编著,变结构控制系统,重庆大学出版社,1997。
[104] 胡跃明著,变结构控制理论与应用,科学出版社哦,2003,1。
[105] 赵松年, 张奇鹏. 机电一体化机械系统设计. 机械工业出版社,北京:1996。
[106] 田宏奇著,滑模控制理论及其应用,武汉出版社,1995,6。
[107] 薛定宇,反馈控制系统设计与分析,清华大学出版社,2000,108
[108] 赵国良,姜仁锋编著,自适应控制技术与应用,人民交通出版社,1991,5。
[109] 曲家骐,王季轶编著,伺服控制系统中的传感器,机械工业出版社,1998,5。
[110] S. Yossifon, R. Shivpuri, Analysis and Comparison of Selected Rotary Linkage Drives for Mechanical Presses, International Journal of Machine Tools & Manufacture,1993,33(2):175-192.
[111] S. Yossifon, R. Shivpuri, Design Considerations for the Electric Servo Motor Driven 30 Ton Double Knuckle Press for Precision Forming, International Journal of Machine Tools & Manufacture,1993,33(2):193-208.
[112] S. Yossifon, R. Shivpuri, Optimization of A Double Knuckle Linkage Drive with Constant Mehanical Advantage for Mechanical Presses, International Jpurnal of Machine Tools & Manufacture,1993,33(2):209-222.
[113] Rong-Fong Fung Ken-Wang Chen Jia-Yush Yen, Fuzzy Sliding Mode Controlled Slider-Crank Mechanism Using a PM Synchronous Servo Motor Drive., International Journal of Mechanism Science. 41(1999)。
[114] Tao Jian, J. P. Sadler, Constant Speed Control of A Motor Driven Mechanism System, Mechanism and Machine Theory , 1995,30(5):737-748.
[115] Tao Jian, Constant Speed Control of A Motor-driven Crank Rocker Mechanism, M, S, Thesis, University of Kentucky,1990.
[116] Ingole A. R., Bandyopadhyay B, Variable Stucture Control Application for Flexible Manipulatiors, Proceedings of the IEEE Conference on Control Applications,1994,2:1311-1316.
[117] Hwang Chih-Lyang, Kuo Chia-Ying, A Stable Adaptive Fuzzy Sliding-mode Control for Affine Nonlinear System with Application to Fourbar Linkage Systems, IEEE Transaction on Fuzzy Systems,2001,9(2):238-252.
[118] Fung Rong-fong, Wang Yun-chen, Yang Rong-tai, Huang Hsing-hsin, A Variable Structure Control with Proportional and Integral Compensations for Electrohydraulic Position Servo Control System, Mechatronics, 1997, 7(1): 67-81.
[119] P. R. Ouyang, Q. Li, W. J. Zhang, L. S. Guo, Design, Modeling and Control of A hybrid Machine System, Mechatronics,2004,14:1197-1217.
[120] Lin F. J., Lin Y. S., Chiu SL. Slider-crank Mechanism Control Using Adaptive Computed Torque Technique, IEEE Proc-Control Theory Applications, 1998, 145:364-376.
[121] Su C. Y., Leung T. P., A Sliding Mode Controller with Bound Estimation for Robot Manipulators, IEEE Trans Robotics and Automation, 1993,9:208-214.
[122] Wai R. J.,Lin F. J., Adaptive Fuzzy Neural Network Control for Motor-toggle Servomechanism, Mechatronics,2001,11:95-117.
[123] Lin F. J., Fung R. F., Wai R. J., Comparison of Sliding Mode and Fuzzy Neural Network Control for Motor-toggle Servomechanism, IEEE Trans Mechatronics, 1998,3:302-318.
[124] Lin F. J., Fung R. F.,Wai Y. C., Sliding Mode and Fuzzy Control of Toggle Mechanism Using PM Synchronous Servomotor Drive, IEEE Proc. Control Theory Appl., 1997,144(5):393-402.
[125] Wai R. J.,Lin C. H., Hsu C. F., Self-organizing Fuzzy Control for Motor-toggle Servomechanism Via Sliding-mode Technique, Fuzzy Sets and Systems,2002,131:235-249.
[126] Lin F. J., Wai R. J., Hybrid Computed Torque Controlled Motor-toggle Servomechanism Using Fuzzy Neural Network Uncertainty Observer, Neurocomputing, 2002,48:403-422.
[127] Lin F.J.,Chiu S. L., Adaptive Fuzzy Sliding-mode Control for PM Synchronous Servo Motor Drives. IEE Proc-control Theory Appl 1998; 145:63-72.
[128] Yao Yan-an, Zhang Ce, Yan Hong-Sen. Motion control of cam mechanisms, Mechanism and Machine Theory, 2000 35: 593-607.
[129] Nooriega J. R., Wang H., A Direct Adaptive Neural-network Control for Unknown Nonlinear Systems and Its Application. IEEE Trans. Neural Networks 1998;9:27-34.
[130] Zhihong M., Wu H. R., Palaniswami M., An Adaptive Tracking Controller Using Neural Networks for A Class of Nonlinear Systems.IEEE Trans. Neural Networks 1998;9:947-955.
[131] 肖英奎,尚涛,陈殿生编著,伺服系统实用技术,化学工业出版社,2004,4。
[132] 贺国光编著,自适应控制系统,1988,12。
[133] 张毅,张宝芬,曹丽,彭黎辉编著,自动检测技术及仪表控制系统,化学工业出版社,2005,3。
[134] 王永初著,滞后过程的预估与控制,机械工业出版社,1987,10。
[135] 陈昕,混合驱动机械系统在考虑速度波动情况下的运动重新规划,硕士学位论文,天津大学,2005 年 6 月。
[136] 杨廷力,机械系统基本理论----结构学、运动学、动力学,北京:机械工业出版社,1996。
[137] 王允禧,锻造与冲压工艺学,北京:冶金工业出版社,1988。
[138] 陆俞,任雅珍,王郡文,多连杆机械压力机杆系优化设计与分析,高师理科学刊,1998,18(1):13~15。
[139] 田福祥,拉延压力机六连杆机构的优化设计,重型机械,1990,No.2:26~30。
[140] 陈锡栋,压力机多杆机构优化设计的矢量三角形法,锻压机械,1996,No.3:33~35。
[141] 余载强,张艳冬,压力机双曲柄多杆机构运动分析和优化设计,锻压设备,1998,1:3~5。
[142] 高波 沈靖 王炎,永磁交流伺服技术应用实践,微电机,1996,No.4。
[143] 李铁才,杜坤梅,电机控制技术,哈尔滨:哈尔滨工业大学出版社,2000。
[144] 译自《日经机械》, 伺服成形设备可提高小型精密冲压零件的生产率, 机电信息, No.1,1998(总第 208 期)。
[145] 王玉新,机构创新设计方法学,天津:天津大学出版社,1996。
[146] 陈隆昌,陈筱艳,控制电机,西安;西北电讯工程学院出版社,1984,6。
[147] 许建国,拖动与调速系统,武汉:武汉测绘科技大学出版社,1998,8。
[148] 曹惟庆,平面连杆机构分析与综合,北京:科学出版社,1989。
[149] 赵洪德,刘晖,机械压力机工作区的变调速功能,锻压机械,1997(5):42-43。
[150] 罗中华,双动拉延压力机内滑块十杆机构的优化设计,机械设计,1999,16(1):41-43。
[151] Box, G. E. P. and Jenkins, G. M.., Time Series Analysis Forcasting and Control, Holden-Day, 1970.
[152] Garland, B. and Marchall, J. E., Senstivity Considerations of Smith’s Method for Time-Delay, Electron,Vol.10, No.15, 1974.
[153] Hammarstrom, L. G. and Waller, K. V., On Optimal Control of Systems With Delay In The Control,IEEE. Trans., Ind. Electron. Contr. Instrum. Vol IECI-27, Nov. 1980.
[154] Hang, C. C., Tan, C. H. and Chan, W. P., A Performance Study of Control Systems With Dead Time, IEEE Trans., Ind. Electron. Contr. Instrum., Vol IECI-27,Aug. 1980.
[155] Su C Y, and Stepanenko Y. On the Robust Control of Robot Manipulators Including Actuator Dynamics. J. Robot. Syst., 1996,13(1):1-10.
[156] Young K D, Utkin V I, and Ozguner U., A Control Engineer’s Guide to Sliding Mode Control. IEEE Trans. On Control and Systems Technology, 1999,7(3):328-342.
[157] Sato Y, Ishizuka T, Nezu K, and Kataoka T., A New Control Strategy for Voltage-type PWM Rectifiers to Realize Zero Steady-state Control Error in Input Current. IEEE Trans. On Industy Applications, 1998,34(3):480-485.
[158] Shieh H j, and Shyu K K. Nonlinear Sliding-mode Torque Control with Adaptive Backstepping Approach for Induction Motor Drive. IEEE Trans. On Industrial Electronics, 1999,46(2):380-389.
[159] Hu Y. M., Lee C K, and Xu J M., Explicit Solution of Pole Assignment in the Sliding Mode Controller Design for Single-link Flexible Manipulators. Int. J. Robot. and Autom., 1998, 13(2):60-64.
[160] Hu Y. M., and Huo W., Robust and Adaptive Control of Nonholonomic Mechanical Systems with Applications to Mobile Robots, In Advanced Topics in Nonlinear Control Systems, Chapter 5,pp163-194, World Scientific Publishing Co Pte Ltd,Singapore, 2001.
[161] Hu Y. M., Hu Z. X., and Mao Z. Y. Robust Tracking of Mobile Robots Via Dynamic Feedback Linearization. Proc. of International Symposium on Signal Processing and Intelligent Systems(ISSPI’99), 1999 年 11 月,广州。
[162] S. Y. Wang, C. M. Hong, W. T. Yang & C. C. Liu, Formation of A Sliding Regime in An Optimal Variable Structure Stabiliger with Uncertain Parameters for A Synchronous Generator, Int. J. Systems Sci., 1993,Vol. 24, No.12,2207-2217.
[163] Milosavljevic C., General Conditions for the Existence of A Quasisliding Mode on the Switching Hyperplane in Discrete Variable Structure Systems, Automat. Remote Control, Vol.46,1985,307-314.
[164] Wang, W. J., and Fan, Y.T., New Output Feedback Design in Variable Structure Systems, Journal of Guidance, Control and Dynamics, Vol.17, No.2, M-April, 1994.
[165] 高为炳,变结构控制基础,科学出版社,1989。
[166] 周其节,变结构系统,广州:华南理工大学,1989。
[167] 李运华,王孙安,林廷圻,史维祥,离散变结构控制的新方法及其在液压伺服系统中的应用,控制理论与应用,1994,11(5),611-616。
[168] 高为炳,程勉,变结构控制的品质控制,控制与决策,4 卷 4 期,1989。
[169] 张戎军,船舶操纵中的变结构控制系统研究,博士学位论文,华中理工大学,1994。
[170] 郑锋,程勉,高为炳,随机系统的变结构控制,控制与决策,Vol.7,No.1,Jan.1992。
[171] 王丰尧编著,滑模变结构控制,北京:机械工业出版社,1995。
[172] 高为炳,变结构控制理论基础,北京:中国科学技术出版社,1990。
[173] 王永初,PID 发展趋势分析,仪器仪表学报,第 2 期,1981。
[174] 王永初,纯迟后单元及其补偿控制系统,仪器仪表学报,第 2 期,1980。
[175] 吕炳朝,纯迟后补偿控制系统抗干扰性能的改善,自动化仪器仪表,第 3期,1984。
[176] 王永初,纯滞后对象控制的一种新方法,自动化仪表,第 10 期,1986。
[177] 王永初,纯滞后补偿的动态预估器,化工自动化及仪表,第 1 期,1986。
[178] 徐同举编著,新型传感器基础,机械工业出版社,1987。
[179] 贺安之等编著,现代传感器原理及应用,宇航出版社,1995。
[180] 刘广玉等编著,新型传感器技术及应用,北京航空航天大学出版社,1995。
[181] 杜维等编著,过程检测技术及仪表,化学工业出版社,1999。
[182] 滕召胜,智能检测系统与数据融合,机械工业出版社,2000。
[183] 曾乐生,施妙和编,随动系统,北京:北京工业学院出版社,1988。
[184] 周立峰,巢来春主编,伺服机械结构(第一分册),北京:国防工业出版社,1980。
[185] 何克忠,李伟编著,计算机控制系统,北京:清华大学出版社,1998。