Dislocations in Solids
Edited by- John Hirth, Hereford, AZ, USA
- Ladislas Kubin, Laboratoire d'Etude des Microstructures, CNRS-ONERA, Chatillon Cedex, France
Bacon and Osetsky present an atomistic model of dislocation-particle interactions in metal systems, including irradiated materials. This work is important in simulating actual behavior, removing earlier reliance on assumed mechanisms for dislocation motion. New mechanisms for dislocation generation under shock loading are presented by Meyers et al. These models provide a basis for understanding the constitutive behavior of shocked material. Saada and Dirras provide a new perspective on the Hall-Petch relation, with particular emphasis on nanocrystals. Of particular significance, deviations from the traditional stress proportional to the square-root of grain size relation are explained. Robertson et al consider a number of effects of hydrogen on plastic flow and provide a model that provides an explanation of the broad range of properties.
.
Audience
Materials science, Solid state physics, Metallurgy, Mechanics, Chemistry, Geophysics
Dislocations in Solids
Hardbound, 328 Pages
Published: September 2009
Imprint: North-holland
ISBN: 978-0-444-53285-5
Contents
88. Dislocation-Obstacle Interactions (D.J. Bacon, and Y.N. Osetsky)
89. Dislocations in Shock Compression and Release (M.A. Meyers, H. Jarmakani, E. Bringa, and B.A. Remington)
90. Mechanical Properties of Nanograined Metallic Polycrystals (G. Saada, and G. Dirras)
91. Hydrogen Effects on Plasticity (I.M. Roberston, P. Sofronis, and H.K. Birnbaum)

