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Online since: December 2014
Authors: De Yi Zheng, Shun Min Hu, Gui Gui Peng
The research on the (1-x) PZT-x PMN piezoelectric materials
Guigui Peng1, a, Shunmin Hu1, b, Deyi Zheng2,3, c
1 Guizhou University, Guizhou Province, China
2Northeastern University,LiaoNing Province,China
3China Zhenhua(GROUP) Science & Technology CO.
Conclusions: In this paper, the influences of the ratio of PMN amounts on the electric properties of the PMNZT materials have been investigated.
Through adjust the ratios of the PMN amounts, the grains size of the PMNZT materials will become fine and the porosity inside the bulk material will decrease.
Lee, in: The piezoelectric properties and the stability of the resonant frequency in Mn–Cr Co-doped PSZT ceramics, Journal of Materials Science: Materials in Electronics Vol. 10-2 (1999), p. 81 [6] BOUTARFAIA A.
Journal of Functional materials [J],1996, 27(3):261
Conclusions: In this paper, the influences of the ratio of PMN amounts on the electric properties of the PMNZT materials have been investigated.
Through adjust the ratios of the PMN amounts, the grains size of the PMNZT materials will become fine and the porosity inside the bulk material will decrease.
Lee, in: The piezoelectric properties and the stability of the resonant frequency in Mn–Cr Co-doped PSZT ceramics, Journal of Materials Science: Materials in Electronics Vol. 10-2 (1999), p. 81 [6] BOUTARFAIA A.
Journal of Functional materials [J],1996, 27(3):261
Online since: December 2011
Authors: Xian Jin Yu, Li Peng Zhang, Zeng Dian Zhao, Yun Hui Dong, Tao Dong
The electrochemical properties and structure of prepared materials were illustrated.
Experimental Synthesize Materials.
Guo: New chemical materials Vol. 35 (2007), p. 77 [12] K.
Wu: Rare materials Vol. 29 (2010), p. 574 [16] H.
Zhai: The Chinese Journal of Process Engineering Vol. 8 (2008), p. 810
Experimental Synthesize Materials.
Guo: New chemical materials Vol. 35 (2007), p. 77 [12] K.
Wu: Rare materials Vol. 29 (2010), p. 574 [16] H.
Zhai: The Chinese Journal of Process Engineering Vol. 8 (2008), p. 810
Online since: October 2014
Authors: Maciej Major, Izabela Major
All of them contain a group of selected material models, including the models of nonlinear hyperelastic materials, in their libraries.
However, this software does not offer analysis with a hyperelastic Zahorski material which allows for a more precise determination of the behaviour of rubber and rubberlike materials at significantly higher deformations compared to the widely used materials such as Mooney - Rivlin or neo - Hookean materials.
Selected Hyperelastic Potentials for Incompressible Materials With large deformations, each of rubberlike materials behaves in a specific manner.
With the popularity of hyperelastic incompressible materials (used in different fields of science and technology), Zahorski’s potential allows supplementing the results of calculations obtained previously for Mooney material.
Mooney, A theory of large elastic deformations, Journal of Applied Physics, 11, 1940, 582-592
However, this software does not offer analysis with a hyperelastic Zahorski material which allows for a more precise determination of the behaviour of rubber and rubberlike materials at significantly higher deformations compared to the widely used materials such as Mooney - Rivlin or neo - Hookean materials.
Selected Hyperelastic Potentials for Incompressible Materials With large deformations, each of rubberlike materials behaves in a specific manner.
With the popularity of hyperelastic incompressible materials (used in different fields of science and technology), Zahorski’s potential allows supplementing the results of calculations obtained previously for Mooney material.
Mooney, A theory of large elastic deformations, Journal of Applied Physics, 11, 1940, 582-592
Online since: May 2013
Authors: Yu Liang Lin, Xue Jun Wen, Jin Gui Qin, Fang Yun Lu
Table 1 lists the chemical composition of these materials.
Lim, International Journal of Mechanical Sciences, 50 (2008) 918-931
Peura, Materials Science and Engineering: A, 507 (2009) 124-131
Spätig, Journal of nuclear materials, 414 (2011) 360-366
Zhao, Materials Science and Engineering: A, 230 (1997) 95-99
Lim, International Journal of Mechanical Sciences, 50 (2008) 918-931
Peura, Materials Science and Engineering: A, 507 (2009) 124-131
Spätig, Journal of nuclear materials, 414 (2011) 360-366
Zhao, Materials Science and Engineering: A, 230 (1997) 95-99
Online since: March 2004
Authors: Zhan Qiang Liu, Yi Wan, J.G. Liu
However, the
surface roughness tends to decrease with the increase in cutting speed when cutting of ductile
materials.
In this study, 45# carbon steel (0.45% carbon) and cast iron were selected as the workpiece materials.
From this figure, it can be seen that the cutting speeds have the same effects on surface roughness for the two kinds of tool materials.
In machining of cast iron, PCBN and Si3N4 based ceramics are most commonly used tool materials [9].
Hodowany: Machining Science and Technology Vol. 2 (1998), p. 343 [4] A.G.
In this study, 45# carbon steel (0.45% carbon) and cast iron were selected as the workpiece materials.
From this figure, it can be seen that the cutting speeds have the same effects on surface roughness for the two kinds of tool materials.
In machining of cast iron, PCBN and Si3N4 based ceramics are most commonly used tool materials [9].
Hodowany: Machining Science and Technology Vol. 2 (1998), p. 343 [4] A.G.
Online since: August 2013
Authors: Xue Gong Huang, Guang Hui Li, Xiao Yu Gu, Jiong Wang
As a new type of smart materials, the fabrication method of the MRE is still non-unified by now.
Fabrication of MRE Samples Choice of Preparation Materials.
Dynamic Characterization and modeling of magnetorhcological elastomers under compressive loading [J].Smart Materials and Structures.
Journal of Tsinghua University(Natural Science), 2010,50(2):246-249 [7]Wei B, Gong X L, Jiang W Q.
Journal of Functional Materials. 2012,3(43):360-362.References的格式与模板的格式不同,建议按照模板重新排版。
Fabrication of MRE Samples Choice of Preparation Materials.
Dynamic Characterization and modeling of magnetorhcological elastomers under compressive loading [J].Smart Materials and Structures.
Journal of Tsinghua University(Natural Science), 2010,50(2):246-249 [7]Wei B, Gong X L, Jiang W Q.
Journal of Functional Materials. 2012,3(43):360-362.References的格式与模板的格式不同,建议按照模板重新排版。
Online since: June 2021
Authors: Eduard Laurentiu Nitu, Daniela Monica Iordache, Mihai Octavian Crăcănel
Weinberger, Process and Tool Development for Friction Stir Welding of Steels, Institute for Materials Science and Welding, Graz, (2010)
Cetkin, Microstructure and Mechanical Properties of AA7075-AA5182 jointed by FSW, Journal of Materials Processing Technology, (2019),vol. 268, 107-116,
Roodgari, Microstructure and mechanical properties of IF/St52 steel composite produced by friction stir lap welding, Materials Science & Engineering , (2020),vol. 772
Series: Materials Science and Engineering, vol. 629, (2019)
Johnson, Microstructure and mechanical properties of friction stir welded AISI321 stainless steel, Journal of Materials Research and Technology, (2020)
Cetkin, Microstructure and Mechanical Properties of AA7075-AA5182 jointed by FSW, Journal of Materials Processing Technology, (2019),vol. 268, 107-116,
Roodgari, Microstructure and mechanical properties of IF/St52 steel composite produced by friction stir lap welding, Materials Science & Engineering , (2020),vol. 772
Series: Materials Science and Engineering, vol. 629, (2019)
Johnson, Microstructure and mechanical properties of friction stir welded AISI321 stainless steel, Journal of Materials Research and Technology, (2020)
Online since: July 2015
Authors: Pavel Hora, Niko Manopulo, Maurice Peterli
I general Theory, The Journal of Chemical Physics, Bd. 7, Nr. 12, S.1103, 1939
[2] D.P.
Beck, Stress-phase-transformation interactions – basic principles, modelling, and calculation of internal stresses, Material Science and Technology, Vol.1, S.805-814, 1985 [5] S.
Simon, Mathematical model coupling phase transformation and temperature evolution during quenching of steels, Material Science and Technology, Vol.1, Issue 10, 1985 [9] S.
Sjöström, Interactions and constitutive models for calculating quench stresses in steel, Material Science and Technology 1, S.823-829, 1985 [10] S.H.
Im, Three-dimensional thermo elastic-plastic finite element modeling of quenching process of plain-carbon steel in couple with phase transformation, International Journal of Mechanical Sciences 49, S.423-439, 2007 [11] G.W.
Beck, Stress-phase-transformation interactions – basic principles, modelling, and calculation of internal stresses, Material Science and Technology, Vol.1, S.805-814, 1985 [5] S.
Simon, Mathematical model coupling phase transformation and temperature evolution during quenching of steels, Material Science and Technology, Vol.1, Issue 10, 1985 [9] S.
Sjöström, Interactions and constitutive models for calculating quench stresses in steel, Material Science and Technology 1, S.823-829, 1985 [10] S.H.
Im, Three-dimensional thermo elastic-plastic finite element modeling of quenching process of plain-carbon steel in couple with phase transformation, International Journal of Mechanical Sciences 49, S.423-439, 2007 [11] G.W.
Online since: August 2019
Authors: S.P. Sundar Singh Sivam, D. Kumaran, S. Rajendra Kumar, Ganesh Babu Loganathan, K. Saravanan
Yielding is portrayed by plastic flow of the materials when strained.
Baradai (2007), The effect of cold work on structure and properties of AISI 304 stainless steel, Journal of materials processing technology 2 0 3 [9] Nitin Kotkunde, Aditya D.
Journal of Chemical and Pharmaceutical Sciences. pp 15 – 22
Indian Journal of Science and Technology.
Indian Journal of Science and Technology.
Baradai (2007), The effect of cold work on structure and properties of AISI 304 stainless steel, Journal of materials processing technology 2 0 3 [9] Nitin Kotkunde, Aditya D.
Journal of Chemical and Pharmaceutical Sciences. pp 15 – 22
Indian Journal of Science and Technology.
Indian Journal of Science and Technology.
Online since: January 2011
Authors: Jian Hua Wang, Shuen Liang, Yan Yan Wang, Chun Rong Tian, Xiu Li Zhao
Shiraishi: International Journal of Polymeric Materials Vol. 33 (1996), p. 61~63
[6] M.
Lee: Journal of Applied Polymer Science Vol. 83 (2002), p. 1482~1489 [9] M.
Chen: Polymer Materials Science and Engineering (in Chinese) Vol. 17 (2001), p. 173~174 [11] T.
Gogolewski: Journal of Biomedical Materials Research Vol. (2003), p. 813~826 [13] Y.
Woodhouse: Journal of Applied Polymer Science Vol. 75 (2000), p.1522~1534
Lee: Journal of Applied Polymer Science Vol. 83 (2002), p. 1482~1489 [9] M.
Chen: Polymer Materials Science and Engineering (in Chinese) Vol. 17 (2001), p. 173~174 [11] T.
Gogolewski: Journal of Biomedical Materials Research Vol. (2003), p. 813~826 [13] Y.
Woodhouse: Journal of Applied Polymer Science Vol. 75 (2000), p.1522~1534