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Online since: June 2012
Authors: Ai Guang Lin, Xiao Fei Ding, Zhong Dong Xie, Cen Xiao Mu, Xian Ying Ma
Structure of Patinopecten yessoensis shell is a biomimetic example of composite Aiguang Lin1, a, Xiaofei Ding1, b, Zhongdong Xie1, c, Xianying Ma1, d, Cenxiao Mu1, e 1School of Mechanical and Power Engineering, Dalian Ocean University, Dalian 116023, China alinagcn@yahoo.com.cn, bdxf@dlou.edu.cn, cxzd@dlou.edu.cn, dmxy@dlou.edu.cn, emcx@dlou.edu.cn Keywords: shell, Patinopecten yessoensis, composite, biomimetic Abstract.
Fan: Advances in mechanics, vol. 24 (1994), pp. 220-232
Sun: Materials science forum, Vols.628-629 (2009), pp. 657-662.
Online since: February 2011
Authors: Zhen Liang Li, Wei Chen, Yun Feng Wang, Tong Le Wang, Hai Ying Xin, Hui Ping Ren, Guo Wei Zhang
The microstructure and phase composition was analyzed by QUANTA400 SEM, BRUKERD8-ADVANCE XRD.
Forum Vol. 350-351(2000), p. 19 [3] E Aghion, B Bronfin and D Eliezer: J.
Vol. 29(1993), p. 321 [7] Guangxian Xu: Rare Earths (Metallurgy Industry Press, Beijing 1997)(In Chinese) [8] Kun Yu,Wenxian Li and Richu Wang: The China Journal of Nonferrous Metals Vol. 13(2003), p. 277 (In Chinese) [9] Ohara H: Light Metal Vol. 48(1998) , p. 422 [10] Kun Yu, Wenxian Li and Ruisong Li: Light Alloy Fabrication Technology Vol. 29 (2001), p. 6 (In Chinese) [11]Zhendong Wang, Wei Chen, Youqi Wang and Li Ma: Ordnance Material Science and Engineering Vol. 32(2009), p. 96 (In Chinese) [12] Metal Department of Zhongshan University: Physical and Chemical Constants of Rare Earth (Metallurgy Industry Press, Beijing 1987)(In Chinese)
Online since: July 2008
Authors: Yoshiyuki Kondo, Pavel Šandera, Jaroslav Pokluda, Karel Slámečka, Jana Horníková
The maximal short-range (SR) component (a totally irreversible slip) can be written as ( ) ( ) max 3 1 6 3 1 S cl S SR R R δ δ −   =  + −   . (2) Due to an enormous variability in the characteristic microstructure distance in engineering materials and for the sake of simplicity, one can divide the grains (or interparticle spacings) into two categories; to those of SR ≥ SRc (maximal level of RICC, SR ≥ 1) and those of SR < SRc (no RICC, SR → 0), where Rc c pS d r= is a critical boundary value of about 0.5 (SRc ∈ 〈0.2, 1〉 [8]).
Advances in fatigue crack closure measurement and analysis.
Forum 567-568, 101.
Online since: September 2013
Authors: Bonnia Noor Najmi, Shuhaimen Siti Shakirah, Siti Norasmah Surip, Mohd Redzuan Aein Afina
However, cured thermosets are known for their brittleness which caused them to have two orders and three orders of magnitude of fracture energy magnitude less than engineering thermoplastic and metals.
Silva, Unsaturated polyester reinforced with fiber and powder of peach palm, Materials Science and Engineering Vol. 29 (2008), p. 510–513
Noor, Influences and properties of various activated carbon and carbon black filled in epoxy composite, Advanced Materials Research.
Wei, Mechanical and tribological properties of phenol formaldehyde resin reinforced with nano-silica, Advanced Materials Research Vol. 194-196 (2011), p. 1772-1775
Chen, Toughening of thermosetting resins with thermoplastic polyimide: thermal, morphological and mechanical characterization, Advanced Materials Research Vols. 150-151 (2011) pp 1330-1335.
Online since: October 2010
Authors: Bin Wang, Ming Li Sun, Qiang Wei
Effect of pulsed magnetic field on structure refinement of pure magnesium Wang Bin a, Sun Mingli b and Wei Qiang c College of Engineering, Zhejiang Normal University, Jinhua 321004, China abinwang@zjnu.cn, bsml@zjnu.cn, cjhwq@zjnu.cn Keywords: pure magnesium; grain refinement; pulsed magnetic field; solidified microstructure Abstract.
During the solidification of pure Mg, the solid advances in the form of dendrite inwards from the mould wall to form a columnar zone, and the primary dendrite grows up right to the center on conventional casting shown in Fig. 1(a).
Forum Vol. 488-489 (2005) p.201 [9] C.Y.
Online since: October 2006
Authors: Robert P. Devaty, Wolfgang J. Choyke, Stephen E. Saddow, Ulrich Starke, W.Y. Lee, Camilla Coletti
Choyke 2 Max-Planck-Institut für Festkörperforschung, Heisenbergstr. 1, D-70569 Stuttgart, Germany, phone: +49 (0) 711-6891345, fax: +49 (0) 711-6891099, Email: u.starke@fkf.mpg.de 1 Electrical Engineering Dept., University of South Florida, Tampa, Fl 33620, USA 2 Dept. of Physics and Astronomy, University of Pittsburgh, Pittsburgh, PA 15260, USA Keywords: 4H-SiC, )2101( , 02)1(1 , porous SiC, pore surface, LEED, AES, AFM, Surface Structure Abstract.
Forum 483-485 (2005) p. 251
Starke: Atomic structure of SiC surfaces, in Silicon Carbide, Recent Major Advances (eds: W.J.
Online since: February 2014
Authors: Noritoshi Iwata, Daigo Setoyama, Yujiro Hayashi
In this study we analyze the behavior by crystal plasticity finite element (CPFE) analysis, to confirm the validity of application to the deformation analysis of engineering steels of a couple of constitutive models.
Forum (2013)
Huang, Mech Report, Vol.178, Division of Engineering and Applied Sciences, Harvard University, Cambridge, Massachusetts (1991)
Asaro, Advances in Appl.
Online since: July 2013
Authors: Gonasagren Govender, Heinrich Möller, Sigqibo Templeton Camagu
Due to the improved specific modulus and strength, MMCs are particularly useful in the application of moving engineering parts.
Veniali, Advances in laser processing of metal matrix composites (MMCS), Department of Aeronautica, Universita La Sapienza, Paper 1501, 503-512
Forum 678 (2011) 1-22
Tarrant, Nano composites make stronger alloys, EURECA, the site for engineering alloys, www.eurecamagazine.co.uk/article/32127
Online since: September 2018
Authors: Luciano Pessanha Moreira, Marcelo Costa Cardoso, Gustavo Coqui Barbosa, Lílian Barros da Silveira
Micromechanical Modeling of DP600 and DP800 Steels Plastic Behavior Based on the Mori-Tanaka Homogenization Method Gustavo Coqui Barbosa1,2,a, Luciano Pessanha Moreira1,b*, Lilian Barros da Silveira1,c and Marcelo Costa Cardoso3,d 1Graduate Program on Metallurgical Engineering, Universidade Federal Fluminense, Avenida dos Trabalhadores, 420 Volta Redonda, RJ, Cep 27255-125, Brazil 2Centro Universitário Geraldo Di Biase, Campus Volta Redonda, Rua Deputado Geraldo Di Biase, 81 Volta Redonda, RJ, Cep 27213-080, Brazil 3Mechanical Engineering Department, Universidade Federal do Rio de Janeiro, Polo Macaé, Av.
Introduction The mechanical properties of the Advanced High Strength Steels (AHSS) steels are attributed to the chemical composition, type, size, amount and spatial distribution of different phases that can be obtained during thermomechanical treatments.
The uniaxial tensile tests were performed with the Instron model 5582 universal machine equipped with a 30kN and an advanced video extensometer to measure the longitudinal and width specimen strains.
The adopted micromechanical approach also provided the local fields, namely, strains and stresses per phase and, thus, can be viewed as a very promising design tool to predict the springback effects arising from the sheet metal forming operations of advanced high strength steels.
Gutierrez: Materials Science Forum Vols. 426-432 (2003), p. 4525.
Online since: June 2008
Authors: Miroslav Cieslar, Tomas Kovarik, Jozef Zrník
By continued pressing a more advanced deformed substructure was obtained after conducting two deformation passes (8 pressings), which yielded the equivalent strain of ε ~ 2.32, four deformation passes (16 pressings, ε ~ 4.64) and 8 deformation passes (32 pressings, ε ~ 9.28).
Locally observed, the more advanced process of polygonization contributed to formation of regular equiaxed subgrains free of dislocations.
Considering transformation characteristics of deformed structure it appears that the mechanism, which contributes for microstructure refinement, as concerns of the only advanced deformed substructure transformation within macrosheared bands to polygonized subgrains, excluding primary stage of the large grains subdivision by macroshearing, local dynamic recovery is active and not more advanced microshearing.
The engineering stress-strain curves of post-deformed and annealed Al are presented in Fig. 7.
Forum Vols.519-521 (2006) 79. 0.5 µm 1 µm 1 µm a b c Fig. 8.