Systematically develops and then applies the spectral methods to analyzing the dynamic responses
Examines spectral analysis of discrete and discretized structures
Explains spectral analysis as applied to metamaterials and nanostructures
Reinforces reader understanding with a combination of experimental and analytical results related to wave propagation in structures
James F. Doyle is a professor of Aeronautics and Astronautics at Purdue University. He received a Dip. Eng, from DIT, Ireland; M.Sc. from University of Saskatchewan., Canada; and PhD, from University of Illinois, USA. His main areas of research is experimental and computational mechanics, Wave propagation, and nonlinear structural dynamics; special emphasis is placed on solving inverse problems. He has published a number of book on these topics. Professor Doyle is a dedicated teacher and pedagogical innovator. He is a recipient of the Frocht Award for Teaching and the Hetenyi Award for Research, both from the Society for Experimental Mechanics. He is a Fellow of the Society for Experimental Mechanics.
Preface.- Notation.- Introduction.- Spectral Analysis of Wave Motion.- Longitudinal Waves in Rods.- Flexural Waves in Beams.- Higher Order Waveguide Models.- The Spectral Element Method.- Waves in Plates and Cylinders.- Thin Walled Structures.- Structure/Fluid Interactions.- Discrete and Discretized Structures.- Afterword.- Appendix: Bessel Functions.- Index.
This third edition builds on the introduction of spectral analysis as a means of investigating wave propagation and transient oscillations in structures. Each chapter of the textbook has been revised, updated and augmented with new material, such as a modified treatment of the curved plate and cylinder problem that yields a relatively simple but accurate spectral analysis. Finite element methods are now integrated into the spectral analyses to gain further insights into the high-frequency problems. In addition, a completely new chapter has been added that deals with waves in periodic and discretized structures. Examples for phononic materials meta-materials as well as genuine atomic systems are given.
- Systematically develops and then applies the spectral methods to analyzing the dynamic responses;
- Examines spectral analysis of discrete and discretized structures;
- Explains spectral analysis as applied to metamaterials and nanostructures;
- Reinforces reader understanding with a combination of experimental and analytical results related to wave propagation in structures.
This third edition builds on the introduction of spectral analysis as a means of investigating wave propagation and transient oscillations in structures. Each chapter of the textbook has been revised, updated and augmented with new material, such as a modified treatment of the curved plate and cylinder problem that yields a relatively simple but accurate spectral analysis. Finite element methods are now integrated into the spectral analyses to gain further insights into the high-frequency problems. In addition, a completely new chapter has been added that deals with waves in periodic and discretized structures. Examples for phononic materials meta-materials as well as genuine atomic systems are given.
Preface.- Notation.- Introduction.- Spectral Analysis of Wave Motion.- Longitudinal Waves in Rods.- Flexural Waves in Beams.- Higher Order Waveguide Models.- The Spectral Element Method.- Waves in Plates and Cylinders.- Thin Walled Structures.- Structure/Fluid Interactions.- Discrete and Discretized Structures.- Afterword.- Appendix: Bessel Functions.- Index.
Über den Autor
James F. Doyle is a professor of Aeronautics and Astronautics at Purdue University. He received a Dip. Eng, from DIT, Ireland; M.Sc. from University of Saskatchewan., Canada; and PhD, from University of Illinois, USA. His main areas of research is experimental and computational mechanics, Wave propagation, and nonlinear structural dynamics; special emphasis is placed on solving inverse problems. He has published a number of book on these topics. Professor Doyle is a dedicated teacher and pedagogical innovator. He is a recipient of the Frocht Award for Teaching and the Hetenyi Award for Research, both from the Society for Experimental Mechanics. He is a Fellow of the Society for Experimental Mechanics.
Inhaltsverzeichnis
Preface.- Notation.- Introduction.- Spectral Analysis of Wave Motion.- Longitudinal Waves in Rods.- Flexural Waves in Beams.- Higher Order Waveguide Models.- The Spectral Element Method.- Waves in Plates and Cylinders.- Thin Walled Structures.- Structure/Fluid Interactions.- Discrete and Discretized Structures.- Afterword.- Appendix: Bessel Functions.- Index.
Klappentext
This third edition builds on the introduction of spectral analysis as a means of investigating wave propagation and transient oscillations in structures. Each chapter of the textbook has been revised, updated and augmented with new material, such as a modified treatment of the curved plate and cylinder problem that yields a relatively simple but accurate spectral analysis. Finite element methods are now integrated into the spectral analyses to gain further insights into the high-frequency problems. In addition, a completely new chapter has been added that deals with waves in periodic and discretized structures. Examples for phononic materials meta-materials as well as genuine atomic systems are given.
Systematically develops and then applies the spectral methods to analyzing the dynamic responses
Examines spectral analysis of discrete and discretized structures
Explains spectral analysis as applied to metamaterials and nanostructures
Reinforces reader understanding with a combination of experimental and analytical results related to wave propagation in structures
