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Online since: June 2014
Authors: Yun Xin Chen
Constructing a new mode of teaching demonstration center of experimental teaching of mechanics of materials Chen Yun-xin School of Electromechanical &Architectural Engineering,Jianghan University,Wuhan, 430056, China 2098558413@qq.com Keywords:Mechanics of materials; integration; three levels; experimental teaching Abstract:By constructing a new mode of "integration of material mechanics teaching demonstration center, three levels of" experimental teaching, teaching content and teaching mode reform and innovation of the traditional, improve experiment teaching on cultivating the students' experimental ability, scientific thinking and methods, the innovation consciousness and ability in position; to be promoting one of the basic forms of teaching quality education.
Introduction Mechanics of materials is a science based on experiment, "experimental" teaching occupies a special position in the whole education in mechanics of materials in the teaching process, for the coordinated development of students' knowledge, ability, thinking and quality plays a vital role.
Therefore, the material mechanics experiment teaching is not only an important practical teaching link in the cultivation of innovative talents in mechanical major, but also cultivate nearly limitation of specialty (environment, control, materials and other professional) to improve students' experimental ability, an important practical teaching link of practice and innovation capability.
Mechanics of materials [M].
Beijing: Higher Education Press, 2011 [5] Wu Xuezhi On the teaching reform of the course of mechanical design[J] Science and technology information 2012.22
Online since: November 2012
Authors: Yong Hui Xie, Di Zhang, Ming Hui Zhang, Jun Wu
A rig was built to study the friction damping characteristics of metallic materials with non-conforming contact.
In this paper, a test rig for friction damping characteristics of metallic materials with non-conforming contact was designed and built in reference to the literature at home and abroad.
The material of the specimen is 1Cr13.
Gola: Journal of Tribology Vol. 126 (2004), pp. 482-489
[7] Qiong Lin, Zhiyong Hao, Yuheng Liu: Journal of Zhejiang University (Engineering Science), Vol. 43(8) (2009), pp. 1501-1505(In Chinese)
Online since: October 2010
Authors: V. Fascio, Philippe Viot, Ali Chirazi, Michel Dumon, Dominique Bernard
The use of this material for safety applications requires the identification of the mechanical properties of these cellular materials under different kind of loading and in a large range of strain rates.
Fascio, Impact behaviour of hollow balloon agglomerates with density gradient, International Journal of Mechanical Sciences, Volume 52, Issue 5, May 2010, Pages 680-688 [4] Hiroyuki Mae, Masaki Omiya, K.
K., Effects of strain rate and density on tensile behavior of polypropylene syntactic foam with polymer micro-balloons, Materials Science and Engineering, 2008, 477, 168-178 [5] T.
Feyel, Modelling of the compression behaviour of metallic hollow-balloon structures: About the influence of their architecture and their constitutive material's Eq.s, Computational Materials Science, Volume 47, Issue 2, December 2009, Pages 599-610, ISSN 0927-0256 [8] Deshpande, V.
Materials Science and Enginnering A 391 (2005) 408-417
Online since: October 2014
Authors: Rong Qiang Liu, Hao Jiang Zhao, Hong Wei Guo
Periodicity and mismatch of materials in PC results in the phononic band gaps, where the propagation of elastic waves and vibrations is forbidden.
The range of the mass density of solid materials is 1000 kg m-3≤ρ≤20000 kg m-3, so the range of the mass density ratio is 0.05≤ρ1/ρ2≤20.
Economou:Journal of Sound and Vibration Vol. 158(1992), p.377
Mao, et al.: Science Vol. 289(2000), p.1734
Qiu: Chinese Journal of Mechanical Engineering (in Chinese), Vol. 42(2006), p.150
Online since: May 2014
Authors: Ke Gao Liu, Jing Li, Nian Jing Ji, Wen Cheng Gao
Progress of ZnS and its Powder Morphology Synthesized by Chemical Route WENCHENG Gao1,a, NIANJING Ji2,b, JING Li1,c, KEGAO Liu1,d,* 1School of Materials Science and Engineering, Shandong Jianzhu University, Fengming Road, Jinan 250101,China 2State Key Laboratory of Crystal Materials, Shandong University, 27 Shandanan Road, Jinan 250100, China a404313319@qq.com, bjnj33jnj@126.com, clijing-ck@163.com,dliukg163@163.com, *Corresponding author Keywords: Semiconductor; ZnS; hydrothermal method; morphology Abstract.
As the most wide band gap in II-VI compound semiconducting materials, ZnS has many advantages of low-price, innocuity and excellent electro-optical, piezoelectric and pyroelectric properties.
ZnS with high coefficients of refraction and transmission in visible light region has many applications in various fields, such as laser, window materials, inductor, solar cells, et al [3-5].
PhS. 26(1)(2009), p.15 [9] Chen C P, Xie J X: Journal of Atomic & Molecular Physics, 30(001)(2013), p. 149 [10] Zhu H, Huang J F, Cao L Y: Journal of Synthetic Crystals, 1(2009), p.6 [11] Liu D Z, Hou Z Q, Song J M: Journal of Materials Science & Engineering, 2011 (1), p.21 [12] Li L H, Xie R S, Xiao D Q: Journal of Functional Materials, 43(1) (2012), p. 59 [13] Lang J H, Li X, Gao M: Jilin Normal University Journal (Natural Science Edition), 1(2010), p.27 [14] Kou C L, Sun H, Cao J: Journal of Jilin Institute of Chemical Technology, 30(5) (2013), p.59 [15] Yang N, Liu X F, Yu R H.: China Science Paper, 3(2013), p.247 [16] Agawane G L, Shin S W, Moholkar A V: Journal of Alloys & Compounds, 535(2012), p.53 [17] Dhanya A C, Murali K V, Preetha K C: Materials Science in Semiconductor Processing, p.2013 [18] Zhang R, Wang B, Wei L : Vacuum, 86(8) (2012), p.1210 [19] Xie J, Li B, Li Y J : Chinese Journal of Physics. 59(8) (2010), p.5749 [20] Lai S L, Cheng S Y, Huang H L: Electronic
Components & Materials, 29(11) (2010), p.55 [21] Quan N C, Gao F, Sun J: China Journal of Power Sources, 134(1) (2010), p.28 [22] Huang J, Zhu H, Cao L Y: Journal of Synthetic Crystals, 37(4) (2008), p.862 [23] Liu Y J, Huang J F, Wang X F: Journal of Synthetic Crystals. 39(1) (2010), p.69 [24] Yuan H.: Doctor thesis of Jiangsu University of Science & Technology, (2012), p.8 [25] Fang X S, Ye C H, Peng X S: Journal of crystal growth, 263(1) (2004), p.263
Online since: July 2011
Authors: Guang Qing Xu, Yu Cheng Wu, Dong Mei Wang, Zhi Xiang Zheng, Song Zhou, Ling Kun Guo, Jun Lv
Journal of Functional Materials, 2008,(39):1850-1852
Journal of Inorganic Materials,1997, 12(3):445-449
Journal of Inorganic Materials, 2000, 15(6):992-997 [19] Gao Liao, et al.
Journal of Inorganic Materials,1995,10(4):423-427
Journal of Functional Materials, 2008, 36(3):326-329
Online since: August 2013
Authors: Li Yang, Yu Xin Hao
Analysis of aerodynamics behavior of FGM cylindrical panel Li.Yanga, Yuxin.Hao College of Mechanical Engineering, Beijing Information Science and Technology University, Beijing 100192, China, ayangli9087@sohu.com Keywords: Cylindrical panel; functionally graded materials; aerodynamics Abstract.
Introduction Functionally graded materials (FGM) have a smooth and continuous variation of material properties from one surface to another.
Materials properties of the constituents are graded in the thickness direction according to a power-law distribution.
Al-Ajmi, Thermal Buckling and Nonlinear Flutter Behavior of Functionally Graded Material Panels, Journal of Aircraft., 44(5) (2007) 1610–1618
Mohammed, Thermal Buckling and Nonlinear Flutter Behavior of Functionally Graded Material Panels, Journal of Aircraft, 44(5) (2007) 1610–1618
Online since: October 2006
Authors: L.L. Snead, N.B. Morley, William E. Windes, Yutai Katoh, Takashi Nozawa
Zmitko, "ITER Test Blanket Module Functional Materials," Journal of Nuclear Materials (submitted)
Schwarz, Journal of Nuclear Materials 219 (1995) 3-14
Lewis, Journal of Nuclear Materials 219 (1995) 70-86
White, Journal of Nuclear Materials 340 (2005) 187-202
Price, Journal of Nuclear Materials 48 (1973) 47-57
Online since: May 2012
Authors: Man Li Ou, Wei Jun Cao, Long Min Jiang
The performance of concrete materials under high temperature is more complex than that under room temperature.
This paper, by analyzing the mechanical property of concrete materials under high temperature(fire), probes into the changing law of the concrete materials' compressive strength under different temperatures (16 ˚C-800 ˚C) and different static placing time and makes a comparison on the concrete materials' strength between natural cooling and water cooling; illustrates the relationships of concrete materials' compressive strength and temperature, holding time and cooling and other factors under high temperature(fire).
Cool the above-mentioned concrete specimens and stand for a certain temperature environment for some time, and then have the compressive strength test of concrete materials; focus on the regular pattern of concrete strength influenced by temperature and cooling method.
Acknowledgements This work is financially supported by scientific research projects of Hunan Provincial Education Department (08C290), (10C0625) China National Packing Corporation Academic Discipline Project (2008-XK03), Hunan Provincial Natural Science Fund (10JJ3080), Ordinary Project of Hunan Science and Technology Office (2009GK3007) .
:submitted to Journal of Chongqing University(2003) In Chinese [5] Li Wei, Guo Zhenhai: submitted to Journal of Building Structures(1993) In Chinese
Online since: May 2011
Authors: Ying Zi Yang, Xiao Jian Gao, Hong Wei Deng
The bonding strength between MPB materials with traditional cement concrete is an important performance indicator for repair material.
Chau, Z.J Li, Construction and Building Materials 24 (2010), p: 695–700 [4] Q.B.
Wu, Cement and Concrete Research 30 (2000), p: 1807-1813 [5] X.J.GAO, Y.Z.YANG, H.W.DENG, Journal of Sichuan University(Engineering Science Edition), 2010(2), p:35-41 [6] E.
Cao, Journal of Logistical Engineering University, 2007, 23(2):84-87
Wu, Materials and Structures/Mat6riaux et Constructions, Vol. 33, 2000, p : 229-234