2007 ◽  
Vol 29 (1) ◽  
pp. 20-23
Author(s):  
Jae Nam, Binil Starly and Wei Sun

Computer-aided tissue engineering (CATE) is an evolving, multi-disciplinary field that utilizes the tools of medical image processing, computer-aided design (CAD), computational analysis, multiscale modelling and biomanufacturing for the purposes of tissue engineering. The merging of computation and automation with tissue engineering could have the potential for profound advances in developing tissue replacements and also in better understanding of physiology and pathology at a cellular, tissue, and organ level.


2011 ◽  
Vol 264-265 ◽  
pp. 1648-1653
Author(s):  
M.A. Maleque ◽  
M.M. Rahman ◽  
M.S. Hossain

Composite materials have become a popular material substitution for automotive, sports, medical, aerospace and other engineering fields due to their light-weight, high strength and/or stiffness of fibres. In this paper, a conceptual design approach has been presented to develop aluminium metal matrix composite (AMC) automotive brake rotor system. A systematic and stepby- step approach of full design is shown for better understanding of the design concept of automotive brake rotor. The methodology of conceptual stage, computer aided design (CAD) and evaluation systems are discussed for illustrating and selecting the best concept. A total of six (6) concepts for both surface rejuvenates feature and ventilated cooling fins are explained. It was found that the Concept 6 for surface rejuvenates feature and Concept 1 for ventilated cooling fins are the best combination for aluminium metal matrix composite brake rotor application.


Author(s):  
M. G. Burke ◽  
M. N. Gungor ◽  
P. K. Liaw

Aluminum-based metal matrix composites offer unique combinations of high specific strength and high stiffness. The improvement in strength and stiffness is related to the particulate reinforcement and the particular matrix alloy chosen. In this way, the metal matrix composite can be tailored for specific materials applications. The microstructural characterization of metal matrix composites is thus important in the development of these materials. In this study, the structure of a p/m 2014-SiC particulate metal matrix composite has been examined after extrusion and tensile deformation.Thin-foil specimens of the 2014-20 vol.% SiCp metal matrix composite were prepared by dimpling to approximately 35 μm prior to ion-milling using a Gatan Dual Ion Mill equipped with a cold stage. These samples were then examined in a Philips 400T TEM/STEM operated at 120 kV. Two material conditions were evaluated: after extrusion (80:1); and after tensile deformation at 250°C.


Sign in / Sign up

Export Citation Format

Share Document