The Interaction Of Complex Harmonic Elastic Waves With Periodically Corrugated Surfaces And With Anisotropic Viscoelastic And Or Piezoelectric Layered Media

Unabridged Ph.D. Thesis with thesis defense photos and presentation at the end.

The Desclergues of la Villa Ducal de Montblanc (2nd edition) is a comprehensive ancestral chronicle, meticulously tracing the Desclergues family lineage from the Greek era through the Villa Ducal de Montblanc in Tarragona to the present in Belgium. This omnibus edition compiles the entire acclaimed series, offering an exhaustive account of the Desclergues of Montblanc alongside the author's other ancestral lines, including de Patin, de Patin de Langemark, Lesage, Benoit, Den Dauw, 't Kint, Surmont, de Croock, Ardan, Lammens, Decaestecker, and de Silva of Uduwara in Sri Lanka. This scholarly work is enriched by a comprehensive DNA analysis, providing genetic depth to the historical narrative. Each family line is intricately contextualized within its historical setting, with facsimile images of archival records offering tangible evidence of the past. This beautifully illustrated book presents a visually engaging experience, enhancing historical insights and making it an invaluable resource for students, historians, and anyone passionate about genealogical studies. Nico Felicien Declercq, a full professor at the Georgia Institute of Technology, is a distinguished scholar. With a Ph.D. from Ghent University and an MSc from the Catholic University of Leuven, his prolific academic career encompasses numerous published works. His passion for history and genealogy led him to meticulously document his ancestral lineage, culminating in this comprehensive work. Professor Declercq's interdisciplinary approach and dedication to rigorous research have earned him a reputation for excellence in the scientific community and among genealogical enthusiasts. He is also the author of several philosophical novels published under a pseudonym.

Creep and Fatigue in Polymer Matrix Composites, Second Edition, updates the latest research in modeling and predicting creep and fatigue in polymer matrix composites. The first part of the book reviews the modeling of viscoelastic and viscoplastic behavior as a way of predicting performance and service life. Final sections discuss techniques for modeling creep rupture and failure and how to test and predict long-term creep and fatigue in polymer matrix composites. Reviews the latest research in modeling and predicting creep and fatigue in polymer matrix composites Puts a specific focus on viscoelastic and viscoplastic modeling Features the time-temperature-age superposition principle for predicting long-term response Examines the creep rupture and damage interaction, with a particular focus on time-dependent failure criteria for the lifetime prediction of polymer matrix composite structures that are illustrated using experimental cases

Fibres are used both for traditional textile applications as well as in advanced technical structures. Understanding the fatigue processes in these fibres can suggest ways of eliminating or reducing the probability of unforeseen failures. This book addresses key aspects of fatigue failure in textile fibres. Part one explains the different types of fatigue failure in textiles such as tensile, torsional and flex fatigue. It describes the mechanisms of each type of fatigue and illustrates the kinds of fatigue failure that can occur. Part two moves on to explain the factors that can affect fatigue life and fatigue behaviour. It underlines the relationship that fatigue has with the environment and looks at testing and modelling fatigue in such areas as polymer matrices. Chapters relate actual fibre fatigue failures to those of laboratory tests and the way they influence mathematical modelling to predict potential failure. With an international range of contributors Fatigue failure of textile fibres is key reading for textile engineers, academics, textile technologists, fibre scientists and all those concerned with the topic of fatigue failure in textiles and textile-based assemblies. Addresses key aspects of fatigue failure in textile fibres including tensile, flex and torsional fatigue Examines factors that can effect fatigue life and fatigue behaviour including textile processing and environmental factors

This volume contains a timely collection of research papers on the latest developments in the ever-increasing use of elastic waves in a variety of contexts. There are reports on wave-propagation in various types of media: in both isotropic and anisotropic bodies; in homogeneous and inhomogeneous media; in media with cracks or inclusions in random media; and in layered composites. The bulk of the papers are concerned with propagation in elastic media, but also included are viscoelastic, thermoelastic and magneto-electroelastic wave propagation, as well as waves in porous and piezo-electric bodies. Consideration is given to propagation in bodies as diverse as stretched elastic strings to surfaces such as thin walled cylinders, and thin films under stress. Applications considered include the determination of the depth of cracks; analysis of ground motions generated by a finite fault in seismology; surface wave spreading on piezo-electric solids; and dynamical stress intensity factors. Most of the papers are theoretical in nature, and many are complemented by numerical studies. Also included are a general survey on experimental techniques, and reports on experimental work. The volume will be of interest to those who do theoretical studies of elastic wave propagation and to those who apply elastic waves whether in seismology, non-destructive testing, the fabrication of devices or underwater acoustics, etc.

This book is a rigorous, self-contained exposition of the mathematical theory for wave propagation in layered media with arbitrary amounts of intrinsic absorption. The theory, previously unpublished in book form, provides solutions for fundamental wave-propagation problems and corresponding numerical results in the context of any media with a linear response (elastic or anelastic). It provides new insights regarding the physical characteristics for two- and three-dimensional anelastic body and surface waves. The book is an excellent graduate-level textbook. It permits fundamental elastic wave propagation to be taught in the broader context of wave propagation in any media with a linear response. The book is also a valuable reference text. It provides tools for solving problems in seismology, geotechnical engineering, exploration geophysics, solid mechanics, and acoustics. The numerical examples and problem sets facilitate understanding by emphasizing important aspects of both the theory and the numerical results.