Background of the Problems 2 Methodology 7

TABLE OF CONTENTS CHAPTER TITLE PAGE PROJECT TITLE i DECLARATION iii DEDICATION v ACKNOWLEDGEMENT vi ABSTRACT vii ABSTRAK viii TABLE OF CONTENTS ix LIST OF FIGURE xii LIST OF APPENDICES xv LIST OF SYMBOLS xiv I INTRODUCTION 1.1 Project Introduction 1

1.2 Background of the Problems 2

1.3 Statement of the Problems 3 1.4 Objective of the Study 5 1.5 Scope of Study 6 1.5.1 Significance of Study 6

1.6 Methodology 7

II LITERATURE REVIEW 2.1 Introduction 9 2.2 Review of Input Shaping Method 9 2.3 Summary 15 III DEVELOPMENT OF INPUT SHAPING CONTROL TECHNIQUE USING INVERSE DYNAMICS 3.1 Inverse Dynamics 18 3.2 Desired Motion 19 IV MODELLING OF A FLEXIBLE MANIPULATOR SYSTEM 4.1 The Flexible Manipulator System 23 4.1.1 Modeling of the Flexible Manipulator 25 4.2 Derivation of the Equation of Motion 26 V SIMULATION RESULT AND ANALYSIS 5.1 Matlab 30 5.2 Simulink 31 5.3 Simulation 33 5.4 Simulation Results 35 5.5 Discussion 40 VI CONCLUSION AND FUTURE WORK 6.1 Conclusion 41 6.2 Future Work 42 REFERENCES 44 APPENDICES 47 LIST OF FIGURES NO TITLE PAGE 1.1 Convolution of an impulse sequence with a system input 5 3.1 System models used in the examples 18 3.2 Characteristics of the purposed output function 22 4.1 Description of the manipulator system 24 4.2 Overview of the flexible manipulator 24 4.3 Input variable for the system 27 5.1 Input shaping parameters 33 5.2 Block parameters for expression of the motion 34 5.3 Overview for the system developed 34 5.4 Parameters and matrix equation for the systems 35 5.5 Overview of the system developed 36 5.6 Block parameters gain Matrix A 37 5.7 Block parameters gain Matrix B 37 5.8 Block parameters gain Matrix K for stabilize the system 38 5.9 Input shaping waveform 38 5.10 Output waveform for end-point displacement 39 5.11 Output waveform for hub angle 39 LIST OF APPENDICES NO TITLE PAGE A One link flexible manipulator 47 B Matrix equation for the system 48 LIST OF SYMBOLS τ - Torque t - Time s - Second E - Young Modulus I - Area moment of inertia A - Cross sectional area ρ - Mass density per unit volume � ℎ - Hub inertia � - Mass matrix � - Stiffness matrix N - Number of element L - Length of element F - Vector of external force Q - Nodal displacement vector Θ - Angular displacement - Velocity - Acceleration � - Angular Velocity � - Angular Acceleration CHAPTER 1 INTRODUCTION

1.1 Introduction