Motor Control

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1: Proceedings of CDC2000
Discrete Event Systems
Control in Communication Systems
Optimal Control and Applications I
Optimisation Approaches and Methods
Model Predictive Control
Advances in Linear Estimation
Stochastic and Uncertain Systems
Nonlinear Control and Applications
Nonlinear Estimation and Filtering
Formation Control and its Applications
New Approaches to Fuzzy Control
Manufacturing Systems
Automotive Applications
Stability Issues in Hybrid Control
Recent Advances in Stochastic Networks
Optimal Control and Applications II
Robust Controller Design - mu, L1 and H2
Constrained and Receding Horizon Control
Identification and Control around the World
Markov Decision Processes
Nonlinear Optimisation
Observers for Nonlinear Systems
Motion Planning
Neural / Fuzzy Stability and Control
Motor Control
Control of Quantum Phenomena I
Hybrid Systems Methods
Control in Communication Networks
Robustness and Optimisation
Bumpless Transfer, Antiwindup and Saturation
Adaptive Control: Linear Systems
Estimation and Closed Loop Identification
Control of Markov Processes
Nonlinear Filtering and Control
Modelling, Identification and Validation of Nonlinear Systems
Differential Geometric Control Theory for Mechanical Systems
Nonlinear Output Feedback Control
Pneumatics and Compression Systems
Control of Quantum Phenomena II
Stability of Hybrid Systems
Performance Analysis in Communication Networks
Adaptive Control of Nonlinear Systems
LMI Methods in Design
Robust Control of Time Delay Systems
Subspace Identification Methods
Nonlinear Stochastic Filtering and Estimation
Bifurcations, Chaos and Control I
New Progress in Synthesis of Nonlinear Systems I
Implementation Issues of Sliding Mode Control Theory
Control of Mixing in Shear Flows
Novel Neural Network Control Techniques for Industrial Motion Control Systems
Physiological Control Systems
Optimal Control of Hybrid Systems
Stochastic Models for Communication Networks
Control and Stabilisation of Nonlinear Systems
New Directions in Robust Control
Linear Systems Theory
Advanced Topics in Systems Theory
Estimation in Action
Bifurcations, Chaos and Control II
New Progress in Synthesis of Nonlinear Systems II
Numerical Design and Analysis Techniques for Nonlinear Systems
Analysis and Control of Underactuated Systems
Sliding Mode Control I
Challenges in the Application of Control to Computer Systems
Estimation and Diagnosis of Discrete Event Systems
Communications and Games
Optimal Control
Stochastic Systems
Model Reduction Methodologies
Identification and Subspace Methods
Applications of Nonlinear Adaptive Control
Advances in Nonlinear Output Feedback Design
The Behavioural Approach to Systems and Control
Vision Based Estimation and Control: Recent Advances and Open Problems
Agile Control of Military Operations
Sliding Mode Control II
Model-based Fault Diagnosis of Industrial Processes
Discrete Event Systems / Petri Nets
System Identification and Confidence Estimation
New Approaches to H-Infinity Control I
Probabilistic Approaches to Robust Control
Time Delay System Stabilisation
Identification Methods
Controlled Stochastic Processes
Output Feedback of Nonlinear Systems
Topics in Nonlinear Stabilisation
Mobile Robots: Tracking Control
Robust Control of Nonlinear Systems
Power Systems Stabilisation and Control
Disk Drive Control
Hybrid Control Applications
Discrete Time Systems
New Approaches to H-Infinity Control II
Linear Systems with Saturating Actuators
New Theories in Distributed Parameter Systems
Applications of Estimation and Identification
Stochastic Control and Tuning Methodologies
Control of Nonlinear Systems
Iterative Learning and Control
Coordinating Robot Systems
Nonlinear Time Varying Systems
Novel Applications of Neural Networks
Aerospace Applications
Switched Systems
Implicit and Descriptor Systems
LQG
Periodic Systems and Disturbances
New Horizons for Distributed Parameter Systems
State Estimation
Learning and Neuro-Control
Nonlinear Control and Stabilisation I
Tracking
Vision Servoing
Controllability of Nonlinear Systems
Control of Flexible Systems
Electro-Mechanical Systems
Robust Control Methods and Applications
Fault Detection and Diagnosis
Optimisation and Applications
Robust Stability Analysis
Numerical Methods in Control
Filtering in Continuous Time Stochastic Systems
Interplay between Control and Signal Processing
Fault Detection and Analysis
Nonlinear Dynamical Systems
Nonlinear Time Delay Systems
Computational Issues in Nonlinear Control
Disturbance Rejection
Process Control Industry Applications
Linear Parameter Varying Systems
Linear Control Systems
Dynamic and Nonlinear Programming
Model Reduction Applications
New Techniques for Control and Systems: Numerical Linear Algebra
Estimation and Identification using Hidden Markov Models
Applications of Stochastic Control
Topics in Linear Design
Nonlinear Control and Stabilisation II
Ambulatory Robot Systems
Chaotic and Oscillatory Systems
Biomedical System Control
Integrated Control and CPU Scheduling
Linear Design Techniques
Adaptive Disturbance / Noise Compensation
Nonlinear Model Predictive Control
Sensitivity Design, Analysis and Limitations
Analysis of Linear Systems
Linear Matrix Inequalities in Design
Lyapunov's 2nd Method
Robotics: Tracking Control
Lagrangian and Hamiltonian Theory
Variable Structure Control
Machine Vision
Signal Processing Methods in Control
Applied Nonlinear Control

Author Index
A B C D E F G H I
J K L M N O P Q R
S T U V W X Y Z

Remote Laboratories for Control Education

Authors:

Henry H. Hahn, Mark W. Spong,

Volume: 1, Page 895 Paper number 1514

Abstract:

This paper describes progress in the development of an integrated network of internet based control laboratories at the University of Illinois at Urbana-Champaign. A key feature of our project is the use of real experiments in addition to simulation and animation. Our first set of experiments includes a DC-motor, an inverted pendulum, an inertia wheel pendulum, and a two-link, direct drive robot arm. These experiments were first tested online in the summer of 2000 and we are class testing them in the fall of 2000 and spring of 2001.

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Input Design For Optimal Discrete Time Point-To-Point Motion Of An Industrial XY-Positioning Table

Authors:

Branko G. Dijkstra, Niad J. Rambaratsingh, Carsten W. Scherer, Okko H. Bosgra, Maarten Steinbuch, Sander Kerssemakers,

Volume: 1, Page 901 Paper number 1268

Abstract:

In this paper a new technique is presented to design input signals for point-to-point control problems with the property of minimal excitation of parasitic system oscillations. This technique is compared to impulse based input design techniques in experiments performed on an industrial XY-positioning table. Impulse Input Shaping was formulated as a solution to an optimisation problem, which has been transformed for the case of point-to-point problems, resulting in a more time-optimal solution. The results from this new optimisation are very impressive considering the simplicity.

CD001268.PDF (From Author)

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A Note on the Nonlinear H-Infinity Control for Synchronous Motors

Authors:

Stefano Di Gennaro,

Volume: 1, Page 907 Paper number 2188

Abstract:

This work deals with the nonlinear H-infinity control of a permanent magnet synchronous motor subject to parameter variations during its operation. The control aim is to track a desired angular trajectory. First, a controller based on the nominal parameter values is determined, while the parameter variations are considered disturbances acting on the nominal plant. Second, a nonlinear H-infinity controller is designed in order to satisfy the sub-optimal attenuation problem in the case of availability of the whole state vector. This second step entails the approximated resolution of a (nonlinear) Hamilton-Jacobi-Isaacs equation. The resulting controller is tested in numerical simulations and its performance is compared with that of a linear H-infinity controller.

CD002188.PDF (From Author)

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Micro-Positioning Of Linear Piezoelectric Motors Based On A Learning Nonlinear PID Controller

Authors:

Huixing Zhou, Kok Kiong Tan, Tong-Heng Lee,

Volume: 1, Page 913 Paper number 1018

Abstract:

In this paper, a learning nonlinear PID controller is developed for vaguely modeled nonlinear systems under significant disturbance and noise. The control scheme is generic in nature, but it is applied specifically to micro positioning of linear piezoelectric motors in this paper. Mathematical models for the piezoelectric motor and the associated friction phenomenon are provided and verified in the simulation and experimental results provided. These results also highlight the good motion control performance achieved from the control scheme.

CD001018.PDF (From Author)

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Robustness Of Global Asymptotic Stability In Indirect Field Oriented Control Of Induction Motors

Authors:

Romeu Reginatto, Alexandre S. Bazanella,

Volume: 1, Page 919 Paper number 1895

Abstract:

The influence of the rotor time constant mismatch on the stability of induction motors under field oriented control is analyzed. A global stability criterion based on the solution of an LMI/LME problem is given.

CD001895.PDF (From Author)

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Speed Tracking Control with Maximal Power Transfer of Induction Motor

Authors:

Hou-Tsan Lee, Li-Chen Fu, Hsin-Shen Huang,

Volume: 1, Page 925 Paper number 2192

Abstract:

This paper proposes a speed tracking control of induction motors based on the input/output linearization method, which can also achieve the maximal power transfer. A simple group of observers are designed to estimate the rotor flux in order to determine the orientation of rotor flux. The control law of the maximal power transfer to the rotor gives the relationship between the stator voltage and the orientation of rotor flux in d-q frame. The speed tracking controller is also robust with respect to the variation of rotor resistance and load torque. Simulation results are given to show the effectiveness of the presented controller. Experimental results are also given to validate the performances.

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Robust Control for Linear Induction Motor Servo Drive Using Neural Network Uncertainty Observer

Authors:

Faa-Jeng Lin, Rong-Jong Wai, Chin-Chung Lee, Shu-Peng Hsu,

Volume: 1, Page 931 Paper number 111

Abstract:

A robust controller, which combines the merits of integral-proportional (IP) position control and neural network (NN) control, is designed for a linear induction motor (LIM) servo drive in this study. First, the secondary flux of the LIM is estimated using a sliding-mode flux observer on the stationary reference frame and the feedback linearization theory is used to decouple the thrust force and the flux amplitude of the LIM. Then, the IP position controller is designed according to the estimated mover parameters to match the time-domain command tracking specifications. Moreover, a robust controller is formulated using the NN uncertainty observer, which is implemented to estimate the lumped uncertainty of the controlled plant, as an inner-loop force controller to increase the robustness of the LIM servo drive system. Furthermore, in the derivation of the on-line training algorithm of the NN, an error function is used in the Lyapunov function to avoid the real-time identification of the sys

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