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: Mechanical Property
Books
Edited by:
Yonghao Zhao and Xiaozhou Liao
Online since: November 2009
Description: Volume is indexed by Thomson Reuters BCI (WoS).
Strength and ductility are two of the most important mechanical properties of structural materials, but this usually involves a trade-off, because of the fundamental inverse proportionality of these two features. Since the 1980s, bulk nanostructured materials have emerged as a new class of material having unusual structures and, as a result, have attracted increasing attention. Unfortunately, most bulk nanostructured materials still do not evade the strength-ductility trade-off dilemma, and usually have very poor ductility. The poor ductility of bulk nanostructured materials has indeed become a seemingly insurmountable obstacle to the widespread technological application of structural bulk nanostructured materials.
Strength and ductility are two of the most important mechanical properties of structural materials, but this usually involves a trade-off, because of the fundamental inverse proportionality of these two features. Since the 1980s, bulk nanostructured materials have emerged as a new class of material having unusual structures and, as a result, have attracted increasing attention. Unfortunately, most bulk nanostructured materials still do not evade the strength-ductility trade-off dilemma, and usually have very poor ductility. The poor ductility of bulk nanostructured materials has indeed become a seemingly insurmountable obstacle to the widespread technological application of structural bulk nanostructured materials.
Edited by:
Akira Kawasaki, Akinaga Kumakawa and Masayuki Niino
Online since: October 2009
Description: Functionally Graded Materials (FGMs) are multifunctional materials which exhibit spatial variations in composition and microstructure; created for the specific purpose of achieving variations in thermal, structural or functional properties. They are presently at the forefront of materials research and are receiving worldwide attention. They enjoy a broad range of application; including, for example, biomechanical, automotive, aerospace, mechanical, civil, nuclear and naval engineering. New applications are continually being discovered and developed.
Edited by:
M.H Aliabadi, S. Abela, S. Baragetti, M. Guagliano and Han-Seung Lee
Online since: October 2009
Description: This special collection covers the latest theoretical, computational and experimental research on fracture and damage mechanics as well as on structural integrity and durability.
Edited by:
Yansheng Yin and Xin Wang
Online since: August 2009
Description: With the rapid development of science and technology, the functionalization of structural materials, and the structurization of functional materials are attracting increasing attention in the scientific and engineering fields. The development of multi-functional materials and structures (MFMS), at the micro- and nano-scale levels, has grown rapidly due to the requirement of increasing safety margins for all infrastructure, biomedical and engineering elements. Multi-functional material systems are capable of performing multiple “primary” functions, simultaneously or sequentially in time, and are specially designed to improve system performance via a reduction in the redundancy between sub-system materials and functions.
Edited by:
Dongming Guo, Jun Wang, Zhenyuan Jia, Renke Kang, Hang Gao, and Xuyue Wang
Online since: August 2009
Description: This special volume is part 2 of a mini-series on, “Materials Manufacturing Science and Technology XII”. It covers three topics: Modern design theory & methodology, MEMS & nanotechnology, Materials science & technology in manufacturing. Presented here is a collection of 125 papers selected from over 510 papers originally submitted by universities and industrial concerns all over the world. All of the papers have been peer-reviewed. The papers selected for this volume were chosen on the basis of their quality and their relevance to the topic. This work reflects the latest developments in this field; running the gamut from fundamentals to new techniques and applications.
Edited by:
Hyungsun Kim, JienFeng Yang, Tohru Sekino and Soo Wohn Lee
Online since: April 2009
Description: The aim of this special volume is to give an overview of the historical background and present status of eco-materials processing and design for materials research, and to foresee future trends in the field. Serious global and environmental problems have led the materials manufacturing industries to monitor closely the formation and accumulation of carbon dioxide and other deleterious gases in the atmosphere, as well to reduce raw materials use and energy consumption and limit other factors which reflect the environmental impact of the industry.
Volume is indexed by Thomson Reuters CPCI-S (WoS).
Volume is indexed by Thomson Reuters CPCI-S (WoS).
Edited by:
M.S. Dargusch & S.M. Keay
Online since: April 2009
Description: Volume is indexed by Thomson Reuters CPCI-S (WoS).
The aim of this special collection was to provide an opportunity for companies, academic institutions and government research agencies to share, in a collaborative manner, their new research and development work.The main focus was light metals and their applications.
It is to be noted that there was a significant number of papers related to titanium research: due to the extended range of applications of titanium components and the growth in end-user demands for affordable manufacturing. As a result, the collection is truly representative of the three light metals: aluminium, magnesium and titanium; with a similar number of papers concerning each metal.
The aim of this special collection was to provide an opportunity for companies, academic institutions and government research agencies to share, in a collaborative manner, their new research and development work.The main focus was light metals and their applications.
It is to be noted that there was a significant number of papers related to titanium research: due to the extended range of applications of titanium components and the growth in end-user demands for affordable manufacturing. As a result, the collection is truly representative of the three light metals: aluminium, magnesium and titanium; with a similar number of papers concerning each metal.
Edited by:
Erich Kny
Online since: April 2009
Description: Volume is indexed by Thomson Reuters CPCI-S (WoS).
Nanocomposite materials constitute a rapidly evolving field of science and technology, of which the first applications are already on the market and many more are expected to follow. The admixture of relatively low amounts of nanoparticles (these are, by definition, any morphology having at least one dimension in the nano-range, i.e. particles, fibres, plates) within a matrix of polymer, ceramic or metal has a dramatic increasing effect upon the resultant properties (volume, surface and functional properties). Unusual property combinations can be obtained; resulting in a new class of materials for almost every application.
Nanocomposite materials constitute a rapidly evolving field of science and technology, of which the first applications are already on the market and many more are expected to follow. The admixture of relatively low amounts of nanoparticles (these are, by definition, any morphology having at least one dimension in the nano-range, i.e. particles, fibres, plates) within a matrix of polymer, ceramic or metal has a dramatic increasing effect upon the resultant properties (volume, surface and functional properties). Unusual property combinations can be obtained; resulting in a new class of materials for almost every application.
Edited by:
Takashi Goto, Yi Bing Cheng, Zhengyi Fu and Lian Meng Zhang
Online since: April 2009
Description: This special collection of 73 papers covers the intriguing topic of the synthesis and processing of inorganic materials using non-traditional technologies such as SHS, SPS, mechanical alloying, wet chemistry and aerosol deposition; as well as techniques involving laser, microwave, plasma, electron beam and high-field magnetron exposure.
Edited by:
J. Dusza, R. Danzer, R. Morrell and G.D. Quinn
Online since: March 2009
Description: The aim of this book is to make an important contribution to the development of new functional and structural ceramic materials, which exhibit enhanced performances and improved lifetimes and reliability, by fostering a better understanding of the mechanisms of their deterioration and failure under various stress conditions at various operating temperatures.
Volume is indexed by Thomson Reuters CPCI-S (WoS).
The work covers the topics of: basic failure phenomena; indentation fracture; fracture and fractography of structural, electro- and bio-/dental ceramics; fracture of fiber-reinforced composites; fracture of porous and laminated ceramics; defect-strength and microstructure - fracture toughness relationships; damage mechanisms in nanoceramics; fracture and fractography of multilayered ceramics and coatings; machining cracks and edge-chipping; and fracture and fractography of composites and nanocomposites.
Volume is indexed by Thomson Reuters CPCI-S (WoS).
The work covers the topics of: basic failure phenomena; indentation fracture; fracture and fractography of structural, electro- and bio-/dental ceramics; fracture of fiber-reinforced composites; fracture of porous and laminated ceramics; defect-strength and microstructure - fracture toughness relationships; damage mechanisms in nanoceramics; fracture and fractography of multilayered ceramics and coatings; machining cracks and edge-chipping; and fracture and fractography of composites and nanocomposites.