: Qingsong Xu, Kok Kiong Tan
: Advanced Control of Piezoelectric Micro-/Nano-Positioning Systems
: Springer-Verlag
: 9783319216232
: Advances in Industrial Control
: 1
: CHF 85.90
:
: Elektronik, Elektrotechnik, Nachrichtentechnik
: English
: 266
: Wasserzeichen/DRM
: PC/MAC/eReader/Tablet
: PDF

This book explores emerging methods and algorithms that enable precise control of micro-/nano-positioning systems. The text describes three control strategies: hysteresis-model-based feedforward control and hysteresis-model-free feedback control based on and free from state observation. Each paradigm receives dedicated attention within a particular part of the text.

Readers are shown how to design, validate and apply a variety of new control approaches in micromanipulation: hysteresis modelling, discrete-time sliding-mode control and model-reference adaptive control. Experimental results are provided throughout and build up to a detailed treatment of practical applications in the fourth part of the book. The applications focus on control of piezoelectric grippers.

Advanced Control of Piezoelectric Micro-/Nano-Positioning Systems will assist academic researchers and practising control and mechatronics engineers interested in suppressing sources of nonlinearity such as hysteresis and drift when combining position and force control of precision systems with piezoelectric actuation.



Prof. Qingsong Xu has been working in the area of micro-/nano-mechatronics and robotics including design and precision control of micro/nano-positioning systems for about 10 years. He has published over 130 peer-reviewed papers in journals and conferences in related domains.
Prof. Kok Kiong Tan has been working in the area of precision motion control and instrumentation, advanced process control and autotuning, and general industrial automation for over 20 years. He has published over 10 books and 400 scientific papers in related fields.
Series Editors' Foreword7
Preface9
Contents13
Abbreviations19
1 Introduction21
1.1 Micro-/Nano-positioning Technique21
1.2 Actuators and Sensors22
1.3 Piezoelectric Nonlinearity24
1.4 Feedforward Control Based on Hysteresis Models25
1.4.1 Conventional Hysteresis Model26
1.4.2 Intelligent Hysteresis Model28
1.4.3 Feedforward Plus Feedback Control28
1.5 Robust Feedback Control29
1.5.1 Sliding-Mode Control30
1.5.2 Model Predictive Control31
1.5.3 Model-Reference Adaptive Control32
1.5.4 Other Control Strategies33
1.6 Position/Force Control in Micromanipulation33
1.6.1 Hybrid Control34
1.6.2 Impedance Control34
1.6.3 Switching Control35
1.7 Book Summary36
References36
Part I Hysteresis-Model-Based FeedforwardControl41
2 Feedforward Control Based on Inverse Hysteresis Models42
2.1 Introduction42
2.2 System Description and Hysteresis Characterization43
2.2.1 Experimental Setup43
2.2.2 Hysteresis Characterization44
2.3 Hysteresis Modeling47
2.3.1 Hysteresis Modeling with the Bouc--Wen Model47
2.3.2 Hysteresis Modeling with the MPI Model48
2.3.3 Hysteresis Modeling with the LSSVM51
2.4 Experimental Studies55
2.4.1 Bouc--Wen Model Results55
2.4.2 MPI Model Results56
2.4.3 LSSVM Model Results59
2.4.4 Model Capability Comparison61
2.4.5 Generalization Study63
2.5 Controller Design and Verification66
2.5.1 Feedforward Controller Design66
2.5.2 Feedforward Plus Feedback Controller Design68
2.5.3 Controller Verification68
2.6 Chapter Summary73
References73
3 Feedforward Control Without Modeling Inverse Hysteresis75
3.1 Introduction75
3.2 Dynamics Modeling of Hysteretic System76
3.2.1 Dynamics Modeling with Bouc--Wen Hysteresis76
3.2.2 Dynamics Modeling with Intelligent Hysteresis Model77
3.3 Hysteresis Modeling Using LSSVM78
3.3.1 Regression Model Establishment78
3.3.2 LSSVM Modeling78
3.4 Experimental Studies on Hysteresis Identification80
3.4.1 Experimental Setup80
3.4.2 Dynamics Model Identification81
3.4.3 Bouc--Wen Model Results82
3.4.4 LSSVM Model Results85
3.5 Experimental Studies on Hysteresis Compensation89
3.5.1 Feedforward Compensation89
3.5.2 Feedforward Plus Feedback Control91
3.6 Chapter Summary92
References93
Part II Hysteresis-Model-Free,State-Obser ver-Based Feedback Control94
4 Model Predictive Discrete-Time Sliding-Mode Control95
4.1 Introduction95
4.2 Problem Formulation97
4.2.1 Dynamics Modeling of a Nanopositioning System97
4.2.2 Sliding-Mode Controller Design99
4.2.3 Control Gain Design101
4.3 DTSMC Design102
4.3.1 Controller Design and Analysis102
4.3.2 Tracking Error Bound Analysis104
4.4 MPDTSMC Design105
4.4.1 MPDTSMC Controller Design105
4.4.2 Stability Analysis107
4.4.3 State Observer Design108
4.4.4 Tracking and Estimation Error Bound Analysis109
4.5 Experimental Investigation110
4.5.1 Experimental Setup110
4.5.2 Hysteresis Characterization110
4.5.3 Plant Model Identification111
4.5.4 Controller Parameter Design112
4.5.5 Simulation Studies113
4.5.6 Experimental Testing Results115
4.5.7 Discussion on System Performance118
4.6 Chapter Summary119
References119
5 Model Predictive Output Integral Discrete-Time Sliding-Mode Control121
5.1 Introduction121
5.2 Problem Formulation122
5.3 MPOIDSMC Design123
5.3.1 OIDSMC Controller Design123
5.3.2 MPOIDSMC Controller Design125
5.4 Experimental Investigations130
5.4.1 Experimental Setup130
5.4.2 Plant Model Identification131
5.4.3 Controller Parameter Design132
5.4.4 Experimental Studies134
5.4.5 Discussion on Controller Performance137
5.5 Chapter Summary138
References138
Part III Hysteresis-Model-Free,State-Observer-Free Feedback Control140
6 Digital Sliding-Mode Control of Second-Order Systems141
6.1 Introduction141
6.2 Dynamics Model and Problem Formulation142
6.3 DSMC Design144
6.4 Experimental Studies147
6.4.1 Experimental Setup147
6.4.2 Plant Model Identification148
6.4.3 Experimental Results149
6.4.4 Discussion159
6.5 Chapter Summary159
References160
7 Digital Sliding-Mode Control of High-Order Systems161
7.1 Introduction161
7.2 Problem Formulation162
7.2.1 System Modeling162
7.2.2 Dis