BIBLIO is the largest independent book marketplace in the world, with over 100 million books.

Skip to content

Microstructured Materials: Inverse Problems (Springer Monographs in Mathematics)

Microstructured Materials: Inverse Problems (Springer Monographs in Mathematics)

Microstructured Materials: Inverse Problems (Springer Monographs in Mathematics)
Stock photo: cover may vary

Microstructured Materials: Inverse Problems (Springer Monographs in Mathematics) Paperback - 2013

by Jaan Janno

Add to wish list
  • New
  • Paperback
New

Description

Springer, 2013. Paperback. New. 2011 edition. 159 pages. 9.00x6.10x0.50 inches.
Ask the seller a question Add to wish list
A$126.16
A$29.32 Delivery to USA
Standard delivery: 7 to 14 days
More delivery options
Ships from Revaluation Books (Devon, United Kingdom)

Details

  • Title Microstructured Materials: Inverse Problems (Springer Monographs in Mathematics)
  • Author Jaan Janno
  • Binding Paperback
  • Condition New
  • Language ENG
  • Publisher Springer
  • Publication date 2013
  • Features Illustrated
  • Bookseller's Inventory # x-3642270921
  • ISBN 9783642270925
  • Quantity available 2

About Revaluation Books Devon, United Kingdom

Biblio member since 2020

General bookseller of both fiction and non-fiction.

Terms of Sale: 30 day return guarantee, with full refund including original shipping costs for up to 30 days after delivery if an item arrives misdescribed or damaged.

Browse books from Revaluation Books

Reader reviews for Microstructured Materials: Inverse Problems (Springer Monographs in Mathematics)

From the rear cover

Complex, microstructured materials are widely used in industry and technology and include alloys, ceramics and composites. Focusing on non-destructive evaluation (NDE), this book explores in detail the mathematical modeling and inverse problems encountered when using ultrasound to investigate heterogeneous microstructured materials. The outstanding features of the text are firstly, a clear description of both linear and nonlinear mathematical models derived for modelling the propagation of ultrasonic deformation waves, and secondly, the provision of solutions to the corresponding inverse problems that determine the physical parameters of the models. The data are related to nonlinearities at both a macro- and micro- level, as well as to dispersion.

The authors' goal has been to construct algorithms that allow us to determine the parameters within which we are required to characterize microstructure. To achieve this, the authors not only use conventional harmonic waves, but also propose a novel methodology based on using solitary waves in NDE. The book analyzes the uniqueness and stability of the solutions, in addition to providing numerical examples.

tracking-