Harnessing Bistable Structural Dynamics: For Vibration Control, Energy Harvesting and Sensing - Hardcover

Über die Autorin bzw. den Autor

Ryan L. Harne, The Ohio State University, USA
Professor Harne is an Assistant Professor in the Department of Mechanical and Aerospace Engineering at The Ohio State University. His research expertise and interests are in the areas of vibration, acoustics, mechanics, and nonlinear dynamics, with diverse applications throughout aerospace, automotive, biomedical, ocean, and structural sciences.

Kon-Well Wang, University of Michigan, USA
Professor Wang is the Stephen P. Timoshenko Professor and Chair of Mechanical Engineering at the University of Michigan. Professor Wang’s main technical interests are in structural dynamics and adaptive structural systems. He has served as the Chief Editor for the ASME Journal of Vibration and Acoustics, and is currently an Associate Editor for the Journal of Intelligent Material Systems and Structures.

Von der hinteren Coverseite

This book formulates and consolidates a coherent understanding of how harnessing the dynamics of bistable structures may enhance the technical fields of vibration control, energy harvesting, and sensing. Theoretical rigor and practical experimental insights are provided in numerous case studies. The three fields have received significant research interest in recent years, particularly in regards to the advantageous exploitation of nonlinearities. Harnessing the dynamics of bistable structures that is, systems with two configurations of static equilibria is a popular subset of the recent efforts. This book provides a timely consolidation of the advances that are relevant to a large body of active researchers and engineers in these areas of understanding and leveraging nonlinearities for engineering applications.

Coverage includes:

• A one-source reference on how bistable system dynamics may enhance the aims of vibration control, energy harvesting, and sensing with a breadth of case studies
• Details for comprehensive methods of analysis, numerical simulation, and experimentation that are widely useful in the assessment of the dynamics of bistable structures
• Approaches to evaluate, by analytical and numerical analysis and experiment, the influences of harmonic and random excitations, multiple degrees-of-freedom, and electromechanical coupling towards tailoring the underlying bistable system dynamics
• Establishment of how intelligently utilizing bistability could enable technology advances that would be useful in various industries, such as automotive engineering, aerospace systems, microsystems and microelectronics, and manufacturing

Aus dem Klappentext

This book formulates and consolidates a coherent understanding of how harnessing the dynamics of bistable structures may enhance the technical fields of vibration control, energy harvesting, and sensing. Theoretical rigor and practical experimental insights are provided in numerous case studies. The three fields have received significant research interest in recent years, particularly in regards to the advantageous exploitation of nonlinearities. Harnessing the dynamics of bistable structures–that is, systems with two configurations of static equilibria–is a popular subset of the recent efforts. This book provides a timely consolidation of the advances that are relevant to a large body of active researchers and engineers in these areas of understanding and leveraging nonlinearities for engineering applications.

Coverage includes:

• A one-source reference on how bistable system dynamics may enhance the aims of vibration control, energy harvesting, and sensing with a breadth of case studies
• Details for comprehensive methods of analysis, numerical simulation, and experimentation that are widely useful in the assessment of the dynamics of bistable structures
• Approaches to evaluate, by analytical and numerical analysis and experiment, the influences of harmonic and random excitations, multiple degrees-of-freedom, and electromechanical coupling towards tailoring the underlying bistable system dynamics
• Establishment of how intelligently utilizing bistability could enable technology advances that would be useful in various industries, such as automotive engineering, aerospace systems, microsystems and microelectronics, and manufacturing