Author: Takayuki Kitamura, Hiroyuki Hirakata, Takashi Sumigawa, Takahiro Shimada Full Title: Fracture Nanomechanics, 2nd Edition Publisher: Pan Stanford; 2 edition (December 18, 2015) Year: 2016 ISBN-13: 9789814669047, 9789814669054 (978-981-4669-05-4) ISBN-10: 9814669040, 9814669059 Pages: 334 Language: English Genre: Nanoscience & Technology: Nanomaterials File type: PDF (True) Quality: 10/10 Price: £131.00 Materials of micro-/nanometer dimensions have aroused remarkable interest, motivated by the diverse utility of unconventional mechanical and electronic properties distinguished from the bulk counterpart and various industrial applications such as electronic/optic devices and MEMS/NEMS. The size of their elements is now, ultimately, approaching nanometer and atomic scales. Since the conventional theory of "fracture mechanics" is based on the continuum-body approximation, its applicability to the nanoscale components is questionable owing to the discreteness of atoms. Moreover, for describing the fracture behavior of atomic components, it is necessary to understand not only the mechanical parameters (e.g., stress and strain) but also the fracture criterion in the atomic scale. This book systematically provides recent understanding of unusual fracture behaviors in nano/atomic elements (nanofilms, nanowires, etc.) and focuses on the critical initiation and propagation of interface crack and the mechanical instability criteria of atomic structures through the introduction of state-of-the-art experimental and theoretical techniques. It covers the fundamentals and the applicability of top-down (conventional fracture mechanics to nanoscale) and bottom-up (atomistic mechanics, including quantum mechanical effects) concepts. This second edition of Fracture Nanomechanics newly includes dramatic advances in unconventional fracture mechanics in nanofilms, extraordinary fatigue mechanics and mechanisms in nanometals, and a new area of multiphysics properties in nanoelements. Features: Serves as the only book that discusses the fracture behavior of nano-components in terms of the mechanics Features author collaboration, so that readers can systematically learn the concepts of mechanics related with the "fracture" phenomenon in nanoscale on the basis of experiments and numerical simulations. Explains the results reported but also points out the future directions in each topic, which gives readers plenty of hints on advanced works. ------------- Damnant quod non intellegunt!