1st Edition

Nonlinear Dynamics and Vibration Control of Flexible Systems

By JIE HUANG Copyright 2023
    412 Pages 345 B/W Illustrations
    by CRC Press

    This book is an essential guide to nonlinear dynamics and vibration control, detailing both the theory and the practical industrial applications within all aspects of engineering. Demonstrating how to improve efficiency through reducing unwanted vibration, it will aid both students and engineers in practically and safely improving flexible structures through control methods.

    Increasing demand for light-weight robotic systems and space applications has actuated the design and construction of more flexible structures. These flexible structures, involving numerous dynamic systems, experience unwanted vibrations, impacting accuracy, operating speed, safety and, importantly, efficiency. This book aids engineers in assuaging this issue through vibration control methods, including nonlinear dynamics. It covers topics such as dynamic modeling of nonlinear system, nonlinear oscillators, and modal analyses of multiple-mode system. It also looks at vibration control methods including linear control, nonlinear control, intelligent control, and command smoothers. These control methods are effective and reliable methods to counteract unwanted vibrations. The book is practically minded, using industrial applications throughout, such as bridge cranes, tower cranes, aerial cranes and liquid sloshing. It also discusses cable-suspension structures, light-weight links, and fluid motions which exhibit flexible-structure dynamics.

    The book will be of interest to students and engineers alike, in the field of mechatronics, mechanical systems and signal processing, nonlinear dynamics, vibration, and control engineering.

    1. Nonlinear Dynamics 1.1 Dynamic Modeling 1.2 Nonlinear Oscillators 1.3 Approximate Solution 1.4 Modal Analyses 2. Vibration Control 2.1 Linear Control 2.2 Nonlinear Control 2.3 Intelligent Control 2.4 Input Shaper 2.5 Command Smoother 3. Bridge Cranes 3.1 Single-Pendulum Cranes 3.2 Double-Pendulum Cranes 3.3 Distributed-Mass Payload Cranes 3.4 Wind Rejection 3.5 Eccentric-Load Dynamics 4. Tower Cranes 4.1 Single-Pendulum Dynamics 4.2 Twisting Dynamics 4.3 Double-Pendulum and Twisting Dynamics 4.4 Jib-Pendulum Dynamics 5. Aerial Cranes 5.1 Helicopter Slung Rigid Loads 5.2 Quadcopter Slung Rigid Loads 5.3 Quadcopters Slung Liquid Containers 6. Dual Cranes 6.1 Planar Motions 6.2 Three-Dimension Motions 6.3 Dual Aerial Cranes 7. Flexible Link Manipulator 7.1 Linear-Oscillator Dynamics 7.2 Duffing-Oscillator Dynamics 7.3 Coupled Duffing-Oscillator Dynamics 8. Liquid Sloshing 8.1 Planar Linear Sloshing 8.2 Three-Dimensional Linear Sloshing 8.3 Planar Nonlinear Sloshing 8.4 Three-Dimensional Nonlinear Sloshing 8.5 Pendulum-Sloshing Dynamics 8.6 Link-Sloshing Dynamics References

    Biography

    Jie Huang is professor at the School of Mechanical Engineering, Beijing Institute of Technology. He also held visiting appointments at Georgia Institute of Technology, University of Technology Sydney, and University of Southampton. His research interests include flexible multibody dynamics and vibration control.