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Summary
Summary
With a specific focus on the needs of the designers and engineers in industrial settings, The Mechanical Systems Design Handbook: Modeling, Measurement, and Control presents a practical overview of basic issues associated with design and control of mechanical systems. In four sections, each edited by a renowned expert, this book answers diverse questions fundamental to the successful design and implementation of mechanical systems in a variety of applications.
Manufacturing addresses design and control issues related to manufacturing systems. From fundamental design principles to control of discrete events, machine tools, and machining operations to polymer processing and precision manufacturing systems.
Vibration Control explores a range of topics related to active vibration control, including piezoelectric networks, the boundary control method, and semi-active suspension systems.
Aerospace Systems presents a detailed analysis of the mechanics and dynamics of tensegrity structures
Robotics offers encyclopedic coverage of the control and design of robotic systems, including kinematics, dynamics, soft-computing techniques, and teleoperation.
Mechanical systems designers and engineers have few resources dedicated to their particular and often unique problems. The Mechanical Systems Design Handbook clearly shows how theory applies to real world challenges and will be a welcomed and valuable addition to your library.
Reviews 1
Choice Review
Editors Nwokah and Hurmuzlu have assembled a useful addition to the literature on mechanical design and manufacturing. An interesting feature of this handbook is its systems view, a timely addition since the systems approach is gaining importance in engineering. The handbook's 28 chapters are classified in four sections, the first of which discusses general and precision manufacturing. This section also has a useful treatment of monitoring and controlling manufacturing processes such as forming and welding. The second section focuses on control of vibrations and presents active, semiactive, piezoelectric network, and boundary element methods for designing vibration control systems. The third section exclusively treats Tensegrity structures, which are bar-string structures in stable equilibrium. The fourth section presents a nice comprehensive treatment of robotics, including kinematics, dynamics, design, and control of robotics. A noteworthy feature of this last section is its presentation of telerobotics, mobile robots, humanoid robots, and current and future trends in the area of robotics. The handbook offers a good balance of description, mathematical details, and illustrations. A welcome addition to the literature on the systems approach in engineering. Upper-division undergraduates through professionals. M. G. Prasad Stevens Institute of Technology
Table of Contents
Section I Manufacturing | |
1 Manufacturing Systems and Their Design Principles | |
1.1 Introduction | p. 1 |
1.2 Major Manufacturing Paradigms and Their Objectives | p. 2 |
1.3 Significance of Functionality/Capacity Adjustments in Modern Manufacturing Systems | p. 4 |
1.4 Critical Role of Computers in Modern Manufacturing | p. 5 |
1.5 Design Principles of Modern Manufacturing Systems | p. 6 |
1.6 Future Trends and Research Directions | p. 9 |
Selected References | p. 9 |
2 Computer-Aided Process Planning for Machining | |
Abstract | p. 11 |
2.1 Introduction | p. 12 |
2.2 What Is Computer-Aided Process Planning (CAPP)? | p. 12 |
2.3 Review of CAPP Systems | p. 13 |
2.4 Drivers of CAPP System Development | p. 18 |
2.5 Characteristics of CAPP Systems | p. 19 |
2.6 Integrating CAD with CAPP: Feature Extraction | p. 20 |
2.7 Integrating CAPP with Manufacturing | p. 29 |
2.8 CAPP for New Domains | p. 31 |
2.9 Conclusions | p. 33 |
References | p. 34 |
3 Discrete Event Control of Manufacturing Systems | |
3.1 Introduction | p. 39 |
3.2 Background on the Logic Control Problems | p. 40 |
3.3 Current Industrial Practice | p. 44 |
3.4 Current Trends | p. 46 |
3.5 Formal Methods for Logic Control | p. 48 |
3.6 Further Reading | p. 57 |
Acknowledgments | p. 58 |
References | p. 58 |
4 Machine Tool Dynamics and Vibrations | |
4.1 Introduction | p. 61 |
4.2 Chatter Vibrations in Cutting | p. 62 |
4.3 Analytical Prediction of Chatter Vibrations in Milling | p. 66 |
References | p. 73 |
5 Machine Tool Monitoring and Control | |
5.1 Introduction | p. 75 |
5.2 Process Monitoring | p. 75 |
5.3 Process Control | p. 79 |
5.4 Conclusion | p. 81 |
References | p. 81 |
6 Process Monitoring and Control of Machining Operations | |
6.1 Introduction | p. 85 |
6.2 Force/Torque/Power Generation | p. 86 |
6.3 Forced Vibrations and Regenerative Chatter | p. 90 |
6.4 Tool Condition Monitoring and Control | p. 94 |
6.5 Other Process Phenomena | p. 97 |
6.6 Future Direction and Efforts | p. 99 |
Acknowledgments | p. 101 |
References | p. 101 |
7 Forming Processes: Monitoring and Control | |
7.1 Introduction: Process and Control Objectives | p. 105 |
7.2 The Plant or Load: Forming Physics | p. 107 |
7.3 Machine Control | p. 114 |
7.4 Machine Control: Force or Displacement? | p. 115 |
7.5 Process Resolution Issues: Limits to Process Control | p. 116 |
7.6 Direct Shape Feedback and Control | p. 118 |
7.7 Summary | p. 118 |
References | p. 118 |
8 Assembly and Welding Processes and Their Monitoring and Control | |
8.1 Assembly Processes | p. 121 |
8.2 Monitoring and Control of Resistance Welding Process | p. 123 |
8.3 Monitoring and Control of Arc Welding Processes | p. 127 |
References | p. 134 |
9 Control of Polymer Processing | |
9.1 Introduction | p. 139 |
9.2 Process Description | p. 140 |
9.3 Process Variability | p. 142 |
9.4 Modeling | p. 143 |
9.5 Process Control | p. 144 |
9.6 Conclusions | p. 147 |
References | p. 148 |
10 Precision Manufacturing | |
10.1 Deterministic Theory Applied to Machine Tools | p. 151 |
10.2 Basic Definitions | p. 152 |
10.3 Motion | p. 153 |
10.4 Sources of Error and Error Budgets | p. 163 |
10.5 Some Typical Methods of Measuring Errors | p. 169 |
10.6 Conclusion | p. 177 |
10.7 Terminology | p. 177 |
References | p. 179 |
Section II Vibration Control | |
11 Active Damping of Large Trusses | |
Abstract | p. 181 |
11.1 Introduction | p. 181 |
11.2 Active Struts | p. 181 |
11.3 Active Tendon Control | p. 187 |
11.4 Active Damping Generic Interface | p. 191 |
11.5 Microvibrations | p. 192 |
11.6 Conclusions | p. 193 |
Acknowledgment | p. 194 |
References | p. 195 |
12 Semi-Active Suspension Systems | |
12.1 Introduction | p. 197 |
12.2 Semi-Active Suspensions Design | p. 199 |
12.3 Adjustable Suspension Elements | p. 203 |
12.4 Automotive Semi-Active Suspensions | p. 209 |
12.5 Application of Control Techniques to Semi-Active Suspensions | p. 213 |
12.6 Practical Considerations and Related Topics | p. 217 |
References | p. 217 |
13 Semi-Active Suspension Systems II | |
13.1 Concepts of Semi-Active Suspension Systems | p. 221 |
13.2 Control Design Methodology | p. 226 |
13.3 Properties of Semi-Active Suspensions: Performance Indexes | p. 232 |
13.4 Examples of Practical Applications | p. 233 |
References | p. 237 |
14 Active Vibration Absorption and Delayed Feedback Tuning | |
14.1 Introduction | p. 239 |
14.2 Delayed Resonator Dynamic Absorbers | p. 241 |
14.3 Multiple Frequency ATVA and Its Stability | p. 264 |
Acknowledgments | p. 278 |
References | p. 278 |
15 Vibration Suppression Utilizing Piezoelectric Networks | |
15.1 Introduction | p. 281 |
15.2 Passive and Semi-Active Piezoelectric Networks for Vibration Absorption and Damping | p. 282 |
15.3 Active-Passive Hybrid Piezoelectric Network Treatments for General Modal Damping and Control | p. 285 |
15.4 Active-Passive Hybrid Piezoelectric Network Treatments for Narrowband Vibration Suppression | p. 289 |
15.5 Nonlinear Issues Related to Active-Passive Hybrid Piezoelectric Networks | p. 293 |
15.6 Summary and Conclusions | p. 294 |
Acknowledgments | p. 295 |
References | p. 295 |
16 Vibration Reduction via the Boundary Control Method | |
16.1 Introduction | p. 299 |
16.2 Cantilevered Beam | p. 301 |
16.3 Axially Moving Web | p. 304 |
16.4 Flexible Link Robot Arm | p. 307 |
16.5 Summary | p. 311 |
Acknowledgments | p. 312 |
References | p. 312 |
Section III Dynamics and Control of Aerospace Systems | |
17 An Introduction to the Mechanics of Tensegrity Structures | |
Abstract | p. 316 |
17.1 Introduction | p. 316 |
17.2 Planar Tensegrity Structures Efficient in Bending | p. 326 |
17.3 Planar Class K Tensegrity Structures Efficient in Compression | p. 341 |
17.4 Statics of a 3-Bar Tensegrity | p. 363 |
17.5 Concluding Remarks | p. 375 |
Acknowledgment | p. 376 |
Appendix 17.A Nonlinear Analysis of Planar Tensegrity | p. 377 |
Appendix 17.B Linear Analysis of Planar Tensegrity | p. 379 |
Appendix 17.C Derivation of Stiffness of the C4Tli Structure | p. 381 |
References | p. 386 |
18 The Dynamics of the Class 1 Shell Tensegrity Structure | |
Abstract | p. 389 |
18.1 Introduction | p. 389 |
18.2 Tensegrity Definitions | p. 392 |
18.3 Dynamics of a Two-Rod Element | p. 397 |
18.4 Choice of Independent Variables and Coordinate Transformations | p. 400 |
18.5 Tendon Forces | p. 409 |
18.6 Conclusion | p. 417 |
Acknowledgment | p. 417 |
Appendix 18.A Proof of Theorem 18.1 | p. 418 |
Appendix 18.B Algebraic Inversion of the Q Matrix | p. 427 |
Appendix 18.C General Case for (n, m) = (i, 1) | p. 430 |
Appendix 18.D Example Case (n,m) = (3,1) | p. 435 |
Appendix 18.E Nodal Forces | p. 438 |
References | p. 449 |
Section IV Robotics | |
19 Robot Kinematics | |
19.1 Introduction | p. 451 |
19.2 Description of Orientation | p. 452 |
19.3 Direct Kinematics | p. 456 |
19.4 Inverse Kinematics | p. 462 |
19.5 Differential Kinematics | p. 465 |
19.6 Differential Kinematics Inversion | p. 470 |
19.7 Inverse Kinematics Algorithms | p. 476 |
19.8 Further Reading | p. 483 |
References | p. 484 |
20 Robot Dynamics | |
20.1 Fundamentals of Robot Dynamic Modeling | p. 490 |
20.2 Recursive Formulation of Robot Dynamics | p. 497 |
20.3 Complete Model of Robot Dynamics | p. 503 |
20.4 Some Application of Computer-Aided Dynamics | p. 507 |
20.5 Extension of Dynamic Modeling--Some Additional Dynamic Effects | p. 509 |
Appendix Calculation of Transformation Matrices | p. 519 |
References | p. 523 |
21 Actuators and Computer-Aided Design of Robots | |
21.1 Robot Driving Systems | p. 524 |
21.2 Computer-Aided Design | p. 540 |
References | p. 555 |
22 Control of Robots | |
22.1 Introduction | p. 557 |
22.2 Hierarchical Control of Robots | p. 558 |
22.3 Control of a Single Joint of the Robot | p. 561 |
22.4 Control of Simultaneous Motion of Several Robot Joints | p. 577 |
References | p. 586 |
23 Control of Robotic Systems in Contact Tasks | |
23.1 Introduction | p. 587 |
23.2 Contact Tasks | p. 587 |
23.3 Classification of Robotized Concepts for Constrained Motion Control | p. 588 |
23.4 Model of Robot Performing Contact Tasks | p. 592 |
23.5 Passive Compliance Methods | p. 596 |
23.6 Active Compliant Motion Control Methods | p. 599 |
23.7 Contact Stability and Transition | p. 621 |
23.8 Synthesis of Impedance Control at Higher Control Levels | p. 627 |
23.9 Conclusion | p. 633 |
References | p. 634 |
24 Intelligent Soft-Computing Techniques in Robotics | |
24.1 Introduction | p. 639 |
24.2 Connectionist Approach in Robotics | p. 641 |
24.3 Neural Network Issues in Robotics | p. 648 |
24.4 Fuzzy Logic Approach | p. 656 |
24.5 Neuro-Fuzzy Approach in Robotics | p. 677 |
24.6 Genetic Approach in Robotics | p. 678 |
24.7 Conclusion | p. 680 |
References | p. 681 |
25 Teleoperation and Telerobotics | |
25.1 Introduction | p. 685 |
25.2 Hand Controllers | p. 686 |
25.3 FRHC Control System | p. 693 |
25.4 ATOP Computer Graphics | p. 695 |
25.5 ATOP Control Experiments | p. 698 |
25.6 Anthropomorphic Telerobotics | p. 701 |
25.7 New Trends in Applications | p. 703 |
Acknowledgment | p. 703 |
References | p. 705 |
26 Mobile Robotic Systems | |
26.1 Introduction | p. 707 |
26.2 Fundamental Issues | p. 707 |
26.3 Dynamics of Mobile Robots | p. 716 |
26.4 Control of Mobile Robots | p. 720 |
References | p. 726 |
27 Humanoid Robots | |
27.1 Zero-Moment Point--Proper Interpretation | p. 728 |
27.2 Modeling of Biped Dynamics and Gait Synthesis | p. 735 |
27.3 Control Synthesis for Biped Gait | p. 743 |
27.4 Dynamic Stability Analysis of Biped Gait | p. 752 |
27.5 Realization of Anthropomorphic Mechanisms and Humanoid Robots | p. 765 |
27.6 Conclusion | p. 774 |
References | p. 775 |
28 Present State and Future Trends in Mechanical Systems Design for Robot Application | |
28.1 Introduction | p. 779 |
28.2 Industrial Robots | p. 780 |
28.3 Service Robots | p. 794 |
References | p. 811 |
Index | p. 813 |