Banerjee / Bera | An Introduction to Waves in Mechanical Periodic Structures and Metamaterials | Buch | 978-1-032-88995-5 | sack.de

Buch, Englisch, 296 Seiten, Format (B × H): 156 mm x 234 mm

Banerjee / Bera

An Introduction to Waves in Mechanical Periodic Structures and Metamaterials


1. Auflage 2025
ISBN: 978-1-032-88995-5
Verlag: Taylor & Francis Ltd

Buch, Englisch, 296 Seiten, Format (B × H): 156 mm x 234 mm

ISBN: 978-1-032-88995-5
Verlag: Taylor & Francis Ltd


Metamaterials are artificial, engineered materials designed to manipulate wave propagation in ways not possible with conventional materials. An Introduction to Waves in Mechanical Periodic Structures and Metamaterials presents a systematic and rigorous treatment of wave propagation in periodic structures, with a particular focus on mechanical and acoustic metamaterials. The book bridges fundamental concepts and advanced topics, offering a unified framework to analyze discrete and continuous periodic systems. Key topics include:

- Comprehensive mathematical formulation of wave propagation in solids and periodic structures

- In-depth discussion on bandgap formation through Bragg scattering, local resonance, and inertial amplification

- Coverage of advanced concepts such as meta-damping, non-reciprocity, active control, and nonlinear metamaterials

- Unique focus on damping evaluation in metamaterials, critical for shock resistance and transient dynamic applications

This book serves as an accessible yet rigorous resource for senior undergraduate and graduate students in structural engineering, mechanical engineering, applied physics, and materials science, as well as for researchers seeking to deepen their understanding of wave mechanics in metamaterials.

Banerjee / Bera An Introduction to Waves in Mechanical Periodic Structures and Metamaterials jetzt bestellen!

Zielgruppe


Academic, Postgraduate, and Undergraduate Advanced

Weitere Infos & Material


Section I. Foundational Aspects of Waves in Metamaterials. 1. Introduction. 2. Waves in discrete 1D periodic structures. 3. Damping in 1D discrete medium. 4. Dynamic stiffness matrix for 1D continuum. 5. Band structure in 1D continuum: Transfer matrix approach. Section II. Advanced Topics. 6. Energy transportation in wave propagation. 7. Two dimensional wave propagation. 8. Active feedback controlled metamaterial. 9. Non-reciprocity in Wave Propagation. 10. Nonlinear Metamaterial.


Dr. Arnab Banerjee is an Associate Professor in the Civil Engineering Department, Indian Institute of Technology Delhi. His research focuses on structural dynamics, wave mechanics, and metamaterials for vibration control in infrastructure and renewable energy systems. He has pioneered work in subwavelength attenuation, active control of ultra-wide bandgaps, meta-damping, and non-reciprocal metamaterials. Dr. Banerjee's innovations have led to multiple patents and extensive publications, earning him several national and international recognitions, including the INAE Young Associate award and the Royal Society’s Newton International Fellowship.

Dr. Kamal Krishna Bera is an Assistant Professor in the Civil Engineering Department, National Institute of Technology Tiruchirappalli. His expertise spans structural dynamics, vibration control, and wind-induced instabilities, with a focus on offshore wind turbines and metamaterial-based isolation. He actively collaborates on research in periodic structures and has published widely in leading journals. Dr. Bera combines academic research with practical industry experience in structural engineering.



Ihre Fragen, Wünsche oder Anmerkungen
Vorname*
Nachname*
Ihre E-Mail-Adresse*
Kundennr.
Ihre Nachricht*
Lediglich mit * gekennzeichnete Felder sind Pflichtfelder.
Wenn Sie die im Kontaktformular eingegebenen Daten durch Klick auf den nachfolgenden Button übersenden, erklären Sie sich damit einverstanden, dass wir Ihr Angaben für die Beantwortung Ihrer Anfrage verwenden. Selbstverständlich werden Ihre Daten vertraulich behandelt und nicht an Dritte weitergegeben. Sie können der Verwendung Ihrer Daten jederzeit widersprechen. Das Datenhandling bei Sack Fachmedien erklären wir Ihnen in unserer Datenschutzerklärung.