Engineering Research
Advanced Engineering Forum
Applied Mechanics and Materials
Engineering Chemistry
Engineering Innovations
Journal of Biomimetics, Biomaterials and Biomedical Engineering
International Journal of Engineering Research in Africa
Materials Science
Advanced Materials Research
Defect and Diffusion Forum
Diffusion Foundations and Materials Applications
Journal of Metastable and Nanocrystalline Materials
Journal of Nano Research
Key Engineering Materials
Materials Science Forum
Nano Hybrids and Composites
Solid State Phenomena
Engineering Series
Advances in Science and Technology
Construction Technologies and Architecture
Engineering Headway
Books by Keyword: Deformation Mechanism
Books
Edited by:
Yonghao Zhao
Online since: May 2011
Description: Volume is indexed by Thomson Reuters BCI (WoS).
Bulk nanostructured (NS) materials have emerged as a new class of materials having unusual structures and properties. As a result, they have attracted considerable attention in recent years. Bulk NS materials are single or multi-phase polycrystals with a nanoscale grain size and can usually be classified into nanocrystalline (<100nm) and ultrafine grain (<1000nm) materials. This book contains important papers on the mechanical properties and deformation mechanisms of bulk NS materials. The advanced properties include strength, ductility, strain-hardening, fatigue, dynamic, creep and toughness, etc. These properties are important for the ultimate structural applications of bulk NS materials. The mechanical properties of these materials are determined by their specific deformation mechanisms (such as boundary-dominated deformation) due to the very small grain size in comparison with coarse-grained counterparts. The 20 invited papers is divided between two chapters: I. Advanced Mechanical Properties of Nanostructured Materials - II. Deformation Mechanisms of Bulk Nanostructured Materials. This work should be read by all of those wishing to improve mechanical properties without having to consider entirely new alloys.
Bulk nanostructured (NS) materials have emerged as a new class of materials having unusual structures and properties. As a result, they have attracted considerable attention in recent years. Bulk NS materials are single or multi-phase polycrystals with a nanoscale grain size and can usually be classified into nanocrystalline (<100nm) and ultrafine grain (<1000nm) materials. This book contains important papers on the mechanical properties and deformation mechanisms of bulk NS materials. The advanced properties include strength, ductility, strain-hardening, fatigue, dynamic, creep and toughness, etc. These properties are important for the ultimate structural applications of bulk NS materials. The mechanical properties of these materials are determined by their specific deformation mechanisms (such as boundary-dominated deformation) due to the very small grain size in comparison with coarse-grained counterparts. The 20 invited papers is divided between two chapters: I. Advanced Mechanical Properties of Nanostructured Materials - II. Deformation Mechanisms of Bulk Nanostructured Materials. This work should be read by all of those wishing to improve mechanical properties without having to consider entirely new alloys.
Edited by:
Daniel G. Sanders
Online since: March 2010
Description: The original use of superplastic materials involved mainly applications involving aluminium and titanium. However, discoveries made all over the globe have led to the development of superplastic ceramics, intermetallics, nano-materials, plastics, glasses and other substances.
Edited by:
Dr. T. S. Srivatsan, FASM, FASME
Online since: March 2008
Description: This special-topic book consists of a collection of technical papers assembled under the rubric of “Advances in Understanding the Fatigue Behavior of Materials”. The focus of “Fatigue Behavior of Materials” centers on the changes in properties that occur upon applying cyclic loads. Following its recognition and increasing importance during the latter half of the nineteenth century, this branch of study has focused upon the study and rationalization of the engineering approaches that are commonly used to design against the initiation and/or propagation of the fatigue damage which would otherwise culminate in catastrophic failure.
Showing 1 to 3 of 3 Books