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Mechanics of Nano-Objects

Forest Samuel, Thomas Olivier, Ponchet Anne
Date de parution 01/12/2011
EAN: 9782911256677
Disponibilité Disponible chez l'éditeur
In nanoscience, one always has to question how the basic theories we use at the macro- and meso- scales (continuum elasticity and plasticity, etc) apply at the nanometre scale. Studying mechanical properties of nano-size objects also challenges the e... Voir la description complète
Nom d'attributValeur d'attribut
Common books attribute
ÉditeurECOLE DES MINES
Nombre de pages378
Langue du livreAnglais
AuteurForest Samuel, Thomas Olivier, Ponchet Anne
FormatPaperback / softback
Type de produitLivre
Date de parution01/12/2011
Poids638 g
Dimensions (épaisseur x largeur x hauteur)2,10 x 16,00 x 24,00 cm
In nanoscience, one always has to question how the basic theories we use at the macro- and meso- scales (continuum elasticity and plasticity, etc) apply at the nanometre scale. Studying mechanical properties of nano-size objects also challenges the experimental approaches: how to implement reproducible and controllable mechanical loading? How to measure fields (displacement, stress, strain, etc) with the required nano-resolution? Moreover nanoscience is often tackling the limits of continuum theories and thus simulation is an increasingly important tool to evaluate the different scale transitions needed from atoms to nano-objects.This book provides an updated view of the rapidly growing field of mechanical properties of nano-objects like micropillars, nanowires, nano-particles, nano-precipitates, nano-twins, MEMS, NEMS and structured surfaces, etc. It addresses the theoretical and experimental issues that span the field of mechanics at small dimensions: the fundamentals of continuum mechanics and the mechanics of defects, a general state-of-the-art about modelling and simulation and an overview of the size dependent mechanical properties of nano-objects. Fascinating recent advances are shown in the evaluation of displacement fields at the nano scale by X-ray diffraction and transmission electron microscopy. Examples are given of systems where mastering mechanical properties in small dimensions is key to control the final aimed property (electrical, optical, mechanical, etc).