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Online since: April 2011
Authors: Yong Xiang Dong, Shun Shan Feng, Li Xing Xiao, Chang Jing Xia
Compared with other materials, study of the dynamic characteristics of rock using the SHPB apparatus was late.
International Journal of Rock Mechanics and Mining Sciences, 37(2000): pp. 983-992
International Journal of Rock Mechanics and Mining Sciences, Vol.42(2005), No. 2, pp. 167-176
[6] H.Kolsky, An investigation of mechanical properties of materials at very high rates of loading.
Explosive Materials, Vol. 21(2000), No. 1, pp. 1-5
International Journal of Rock Mechanics and Mining Sciences, 37(2000): pp. 983-992
International Journal of Rock Mechanics and Mining Sciences, Vol.42(2005), No. 2, pp. 167-176
[6] H.Kolsky, An investigation of mechanical properties of materials at very high rates of loading.
Explosive Materials, Vol. 21(2000), No. 1, pp. 1-5
Online since: September 2014
Authors: Yi Zhang, Xi Wen Li, Shu Fen Xiao
FEM Analysis and Structure Improvement of Pinch Valve
Xiao Shufen1, Zhang Yi2 and Li Xiwen2
1School of Computer and Information Science, Hubei Engineering University, Xiaogan, Hubei 432000, China
2School of Mechanical Science and Engineering, Huazhong University of Science and Technology, Wuhan, Hubei 430074, China
a874883176@qq.com, b839871689@qq.com, cxiwenli@vip.sina.com.cn
Keywords: pinch valve; FEM analysis; structure improvement; fatigue life
Abstract.
Pinch valve is an important flow adjusting device in the operating system of polymer materials with characteristics of high viscosity and high solid content, and its service life limits its application and popularization.
Fig.1 Overall structure of the pinch valve Fig. 2 FEM model of the pinch valve Material Model and Parameters of Pinch Valve Constitutive Model and Parameters of Rubber.
The rubber hose material is 26-fluororubber produced by Shanghai 3F New Material Co., Ltd, and the rubber was improved and strengthened by adopting organic montmorillonite.
Correspondence author: Xi Wenli References [1] Yang Meng and Ren Hong: Contemporary Chemical Industry Vol. 34. 6 (2005), p. 424-426 [2] Shen Yue: Journal of Shenyang University Vol. 16. 2 (2004), p. 44-45 [3] Huang Qingzhuan: Chinese Journal of Tropical Agriculture Vol. 29. 5 (2009), p. 20-24 [4] Zuo Liang and Xiao Feixiong: China Elastomerics Vol. 18. 3 (2008), p. 54-56 [5] Gu Zheng, Song Guojun, Gao Jianming and Wang Baojin: China Elastomerics Vol. 17. 6 (2007), p. 30-33
Pinch valve is an important flow adjusting device in the operating system of polymer materials with characteristics of high viscosity and high solid content, and its service life limits its application and popularization.
Fig.1 Overall structure of the pinch valve Fig. 2 FEM model of the pinch valve Material Model and Parameters of Pinch Valve Constitutive Model and Parameters of Rubber.
The rubber hose material is 26-fluororubber produced by Shanghai 3F New Material Co., Ltd, and the rubber was improved and strengthened by adopting organic montmorillonite.
Correspondence author: Xi Wenli References [1] Yang Meng and Ren Hong: Contemporary Chemical Industry Vol. 34. 6 (2005), p. 424-426 [2] Shen Yue: Journal of Shenyang University Vol. 16. 2 (2004), p. 44-45 [3] Huang Qingzhuan: Chinese Journal of Tropical Agriculture Vol. 29. 5 (2009), p. 20-24 [4] Zuo Liang and Xiao Feixiong: China Elastomerics Vol. 18. 3 (2008), p. 54-56 [5] Gu Zheng, Song Guojun, Gao Jianming and Wang Baojin: China Elastomerics Vol. 17. 6 (2007), p. 30-33
Online since: September 2016
Authors: Pavel Hutař, Luboš Náhlík, Kateřina Štegnerová, Zdeněk Majer, Martin Pletz, Raul Bermejo
Introduction
Nowadays, the composite materials can be found in almost all engineering applications.
A considerable part consists of materials based on ceramics.
Nahlik, Mechanics of Composites Materials Vol. 49 (2013), p. 475
Woodhams: Journal of Applied Polymer Science Vol. 18 (1974), p. 1639
Knesl, Key Engineering Materials Vol. 592-593 (2014), p. 445
A considerable part consists of materials based on ceramics.
Nahlik, Mechanics of Composites Materials Vol. 49 (2013), p. 475
Woodhams: Journal of Applied Polymer Science Vol. 18 (1974), p. 1639
Knesl, Key Engineering Materials Vol. 592-593 (2014), p. 445
Online since: August 2013
Authors: Di Wu, Zhuang Li, Wei Lv, Zhen Zheng, Shao Pu Kang
References
[1] T Akasawa, H Sakurai, M Nakamura, et al.: Journal of Materials Processing Technology Vol. 143–144 (2003), p. 66
[2] K Fritz, C S Eva G, Klaus: Key Engineering Materials Vol. 438 (2010), p. 203
[3] M.H Cetin, B.
De, et al.: Materials Science and Technology Vol. 28 (2012), p. 220 [5] U.
Alizadeh, et al.: Materials Research Bulletin Vol. 48 (2013), p. 482 [9] D.
Jia: Journal of Materials Engineering and Performance Vol. 6 (1997), p. 215 [10] M.
Miyanishi: Materials Science and Technology Conference and Exhibition, MS and T'08 Vol. 3 (2008), p. 1812 [11] H.P.
De, et al.: Materials Science and Technology Vol. 28 (2012), p. 220 [5] U.
Alizadeh, et al.: Materials Research Bulletin Vol. 48 (2013), p. 482 [9] D.
Jia: Journal of Materials Engineering and Performance Vol. 6 (1997), p. 215 [10] M.
Miyanishi: Materials Science and Technology Conference and Exhibition, MS and T'08 Vol. 3 (2008), p. 1812 [11] H.P.
Online since: July 2014
Authors: Ze Hua Zhou, Huan Long Yuan, Xiao Feng Xue, Ze Hua Wang, Jia Shao, Zhao Jun Zhong
Self-propagating high-temperature synthesis (SHS) is an advanced technology to produce ceramics, cermets and intermetallic materials.
Corrosion Science, 2011, 53(6): 2106-2114
Combustion synthesis of advanced materials: Fundamentals and applications [J].
Combustion joining of refractory materials [J].
Journal of Materials Science, 2012, 47(1): 68-92
Corrosion Science, 2011, 53(6): 2106-2114
Combustion synthesis of advanced materials: Fundamentals and applications [J].
Combustion joining of refractory materials [J].
Journal of Materials Science, 2012, 47(1): 68-92
Online since: May 2014
Authors: Hai Fei Zhan, Yuan Tong Gu, Ye Wei
Fisher, Graphene-based hybrid materials and devices for biosensing.
Terrones, Towards new graphene materials: Doped graphene sheets and nanoribbons.
Materials Letters, 2012
Modelling and Simulation in Materials Science and Engineering, 2011. 19(5): p. 054006
Chemistry of Materials, 2011. 23(5): p. 1188-1193
Terrones, Towards new graphene materials: Doped graphene sheets and nanoribbons.
Materials Letters, 2012
Modelling and Simulation in Materials Science and Engineering, 2011. 19(5): p. 054006
Chemistry of Materials, 2011. 23(5): p. 1188-1193
Online since: September 2011
Authors: Da Heng Mao, Cheng Bin Chen, Chen Shi, Yang Liu
Nano-WS2 (tungsten disulfide nanoparticles) lubricating oil additive, prepared by the nanometer WS2 particulates and semi-synthetic engine base oil as raw materials, was added into Great Wall engine oil with different mass ratio.
Mao: Journal of Chongqing Normal Universit Vol.21 (2004) No.3, p. 50.
Mao: Journal of Basic Science and Engineering Vol.10 (2009) No.3, p. 429.
Feng: Journal of Central South University of Technology Vol.14 (2007) No.5, p.673.
Wu, et al: Materials Science and Engineering A Vol. 455 (2007), p. 487~491.
Mao: Journal of Chongqing Normal Universit Vol.21 (2004) No.3, p. 50.
Mao: Journal of Basic Science and Engineering Vol.10 (2009) No.3, p. 429.
Feng: Journal of Central South University of Technology Vol.14 (2007) No.5, p.673.
Wu, et al: Materials Science and Engineering A Vol. 455 (2007), p. 487~491.
Stress Amplification Sensing Effect of Holes on Cross-Fiber Composite Simplified from Chafer Cuticle
Online since: June 2012
Authors: Ying Tong, Ying Ying Liu, Guo Zheng Quan
Stress amplification sensing effect of holes on cross-fiber composite simplified from chafer cuticle
Guozheng Quan 1, a Ying Tong 2, b Yingying Liu 3,c
1 State Key Laboratory of Vehicle NVH and Safety Technology, Chongqing, china
400039, China
2Department of Mechatronics Engineering, Chongqing College of Electronic Engineering, Chongqing 401331, China
3Department of Materials Science and Engineering, Chongqing University, Chongqing 400044, China
aquangz_2006@yahoo.com.cn, btongying2004@126.com, cliguisheng66@126.com
Key words: Sensilla;Fiber;Composite materials;Hole
Abstract.
Inspired by an idea to construct bionic materials, these microstructures are simplified by a porous composite model with cross-fiber layer by layer.
Figure 2 shows the torn of chafer shell .We can see that this is a kind of orthogonal layered laid fiber-reinforced composite material, unidirectional fiber composition one-way layer, two adjacent layer direction Angle approximate 90 ° present.
Chafer carapace can be seen as a N-layer orthogonal composite panels, the stress concentration factor as a weighted average of each single stress concentration factor, namely: (2) Where: N is the overlay on the total number; M is the ply orientation number; Ni for the direction of the i repeat number of plies; Ki is stress concentration factor of the i-th layer. 4 Material models Campaniform sensillum of chafer is simplified to the pore on the orthogonal layered laid fiber reinforced plate.Study the bionic mechanical properties by this form , introduced a unidirectional fiber-reinforced plate with 1mm width , 1mm long, and set up a series of φ0.06mm porous with a certain arrangement of the rule .Up and down on both sides of the composite by Y displacement constraint,in the X axis to withstand even stress load.
Journal of Micromechanics and Microengineering, 2005, 15(7): S72 - 81
Inspired by an idea to construct bionic materials, these microstructures are simplified by a porous composite model with cross-fiber layer by layer.
Figure 2 shows the torn of chafer shell .We can see that this is a kind of orthogonal layered laid fiber-reinforced composite material, unidirectional fiber composition one-way layer, two adjacent layer direction Angle approximate 90 ° present.
Chafer carapace can be seen as a N-layer orthogonal composite panels, the stress concentration factor as a weighted average of each single stress concentration factor, namely: (2) Where: N is the overlay on the total number; M is the ply orientation number; Ni for the direction of the i repeat number of plies; Ki is stress concentration factor of the i-th layer. 4 Material models Campaniform sensillum of chafer is simplified to the pore on the orthogonal layered laid fiber reinforced plate.Study the bionic mechanical properties by this form , introduced a unidirectional fiber-reinforced plate with 1mm width , 1mm long, and set up a series of φ0.06mm porous with a certain arrangement of the rule .Up and down on both sides of the composite by Y displacement constraint,in the X axis to withstand even stress load.
Journal of Micromechanics and Microengineering, 2005, 15(7): S72 - 81
Online since: February 2011
Authors: Mohammad Homayoun Sadr-Lahidjani, Mona Ramezani-Oliaee, Mohammad Hajikazemi
Introduction
FGMs are heterogeneous composite materials usually made from a mixture of metals and ceramics, By gradually varying the volume fraction of constituent materials, their material properties exhibit a smooth and continuous change from one surface to another, thus eliminating interface problems.
With the increased use of these materials, it is important to understand the nonlinear behavior of functionally graded plates under pressure load.
The set of materials considered is alumina and aluminum.
Modeling studies applied to functionally graded materials.
Journal of Material Science 1995; 30: 2183–93
With the increased use of these materials, it is important to understand the nonlinear behavior of functionally graded plates under pressure load.
The set of materials considered is alumina and aluminum.
Modeling studies applied to functionally graded materials.
Journal of Material Science 1995; 30: 2183–93
Online since: July 2016
Authors: Mohd Rosli Hainin, Ramadhansyah Putra Jaya, Norzita Ngadi, A.M. Mustafa Al Bakri, Wan Nur Aifa Wan Azahar, Mastura Bujang
Journal Of Food Science. 72 (5) (2007)
[15] J.
Journal Material Science , 40 (1) (2005) 87–95
Journal of Food Science, 69 (2004) 574–578
Key Engineering Materials 599 (2014) 135-140
Key Engineering Materials, 599 (2014) 135-140.
Journal Material Science , 40 (1) (2005) 87–95
Journal of Food Science, 69 (2004) 574–578
Key Engineering Materials 599 (2014) 135-140
Key Engineering Materials, 599 (2014) 135-140.