Sandwich Structures - Hause, Terry
68,99 €
inkl. MwSt.
Versandkostenfrei*
Erscheint vorauss. 2. Januar 2026
payback
34 °P sammeln
  • Gebundenes Buch

This second edition continues to provide a comprehensive foundation for both the practical and theoretical challenges associated with sandwich structures. Expanding on the first edition, the author presents a wide range of problems found in the literature, covering topics such as buckling, post-buckling, free vibration, and dynamic response under various loading conditions. A new section on sandwich construction with functionally graded facings is included, all explored through a consistent, unified theoretical framework. The core governing equations are derived in orthogonal curvilinear…mehr

Andere Kunden interessierten sich auch für
Produktbeschreibung
This second edition continues to provide a comprehensive foundation for both the practical and theoretical challenges associated with sandwich structures. Expanding on the first edition, the author presents a wide range of problems found in the literature, covering topics such as buckling, post-buckling, free vibration, and dynamic response under various loading conditions. A new section on sandwich construction with functionally graded facings is included, all explored through a consistent, unified theoretical framework. The core governing equations are derived in orthogonal curvilinear coordinates, incorporating shallow shell theory and addressing key aspects such as strain-displacement, constitutive, motion, and compatibility equations. With its clear theoretical approach, this edition is an invaluable resource for engineers and researchers seeking a deeper understanding of sandwich structures in both practice and theory. Key features of the book include an introduction toadvanced, general nonlinear geometric theory for sandwich structures, incorporating initial geometric imperfections for both incompressible and compressible cores; a treatment of shallow shell theory for comprehensive analysis; a presentation of functionally graded sandwich structures with material variations for nonlinear scenarios; an examination of compressible cores, including local wrinkling and global responses, with transverse core displacements addressed through two types of power series expansions. New features of the second edition include a new theory on asymmetric anisotropic laminated composite sandwich plates and shells has been introduced; a comprehensive, detailed discussion of boundary conditions, a new section on thermal buckling and the theory of asymmetric anisotropic laminated composite sandwich plates and shells for both weak and strong core types; a combined section on plate and shell buckling, a chapter on post-buckling revised to incorporate the effects of immovable edges on the post-buckling behavior of cross-ply and angle-ply laminated plates and shell-type sandwich structures, a new consolidated chapter on compressible core theory applications, three new appendices supplement the theory presented throughout the book.

Autorenporträt
Terry Hause is a mechanical engineer recently retired from the U.S. Army with over 17 years of experience. His Mechanical engineering experience spans over 30 years covering positions in academia, industry and the federal government with over 25 years of research experience. His research interests are focused on the static and dynamic behavior of sandwich structures which has afforded him numerous publications in prestigious national and international journals. His research activities have resulted in working under grants from NASA Langley Research Center, the Air Force Office of Scientific Research, and independent research within the U.S. Army under the ILIR program. Prior to working for the U.S. Army Dr. Hause worked for Northrop Grumman where he provided research and development support along with expert advice and analysis support to the Defense Threat Reduction Agency. In addition, Dr. Hause has held positions as an assistant professor at a few major universities instructing undergraduate students in mechanical engineering.