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Online since: January 2009
Authors: Leszek Adam Dobrzański, Tomasz Tański
Tański
1, b
1
Silesian University of Technology, Division of Materials Processing Technology and Computer
Techniques in Materials Science, Institute of Engineering Materials and Biomaterials, Konarskiego
St. 18a, 44-100 Gliwice, Poland
a
leszek.dobrzanski@polsl.pl, btomasz.tanski@polsl.pl
Keywords: magnesium alloys, heat treatment, structure, mechanical properties
Abstract.
Schumann, Research for a "New age of magnesium in the automotive.industry", Journal of Materials Processing Technology, Vol. 117 (2001), 276-281
Čížek: Influence of heat treatment on structure and properties of the cast magnesium alloys, Journal of Advanced Materials Research, Vol. 15-17 (2007), 491-496
Gutman, Microstructures and dislocations in the stressed AZ91D magnesium alloys, Materials Science and Engineering, Vol.
Cibis, Microstructure of AM50 die casting magnesium alloy, Journal of Achievements in Materials and Manufacturing Engineering, Vol. 18 (2006), 135-138.
Schumann, Research for a "New age of magnesium in the automotive.industry", Journal of Materials Processing Technology, Vol. 117 (2001), 276-281
Čížek: Influence of heat treatment on structure and properties of the cast magnesium alloys, Journal of Advanced Materials Research, Vol. 15-17 (2007), 491-496
Gutman, Microstructures and dislocations in the stressed AZ91D magnesium alloys, Materials Science and Engineering, Vol.
Cibis, Microstructure of AM50 die casting magnesium alloy, Journal of Achievements in Materials and Manufacturing Engineering, Vol. 18 (2006), 135-138.
Online since: February 2012
Authors: Xiao San Yin, Shi Feng Zhai, Tian Niu Gong
The second strengthening method can make the best of advantage of SCC and steel material, and has strong global performance, high utilization ratio of the additional new materials, seismic behavior improved obviously, and so on.
The three materials of self-stress concrete, SCC and concrete filled tube are combined to form a new composite structure named self-stress and self-compacting concrete filled tube, which takes advantage of the three materials [4].
SCC not only has the advantage of the materials cost, but also can reduce labor charges thanks to the elimination of vibration, so its economic benefit is remarkable.
RC column strengthened with steel jacket and SCC has strong global performance, high utilization ratio of the additional new materials, bearing capacity improved dramaticlly, good seismic behavior, convenient construction, and so on.
References [1] OKAMURA H: Concr Int, Vol.19(1997), p.50 [2] Day R, Holton I, editor: The Concrete Society, August 2005, p. 38–41 [3] Surong Luo, et al:Journal of Railway Science and Engineering Vol.1(2004), p.30(In Chinese) [4] Chengkui Huang, et al: Journal of Dalian University of Technology, Vol.46(2006), p.696(In Chinese) [5] Chengkui Huang, et al: Journal of Dalian University of Technology,Vol.48 (2008),p.564(In Chinese) [6] Junfang Xiong, Xinmin Hu: Construction technology, Vol.36.(2007), p.93(In Chinese) [7] Zhiwu Yu, Hongxia He, Feng Yu: Journal of Architecture and Civil Engineering, Vol.24(2007), p.17(In Chinese) [8] Surong Luo, Jianlan Zheng: Journal of building materials.Vol.9(2006) p.330(In Chinese) [9] Xavier Pintado, Bryan E.
The three materials of self-stress concrete, SCC and concrete filled tube are combined to form a new composite structure named self-stress and self-compacting concrete filled tube, which takes advantage of the three materials [4].
SCC not only has the advantage of the materials cost, but also can reduce labor charges thanks to the elimination of vibration, so its economic benefit is remarkable.
RC column strengthened with steel jacket and SCC has strong global performance, high utilization ratio of the additional new materials, bearing capacity improved dramaticlly, good seismic behavior, convenient construction, and so on.
References [1] OKAMURA H: Concr Int, Vol.19(1997), p.50 [2] Day R, Holton I, editor: The Concrete Society, August 2005, p. 38–41 [3] Surong Luo, et al:Journal of Railway Science and Engineering Vol.1(2004), p.30(In Chinese) [4] Chengkui Huang, et al: Journal of Dalian University of Technology, Vol.46(2006), p.696(In Chinese) [5] Chengkui Huang, et al: Journal of Dalian University of Technology,Vol.48 (2008),p.564(In Chinese) [6] Junfang Xiong, Xinmin Hu: Construction technology, Vol.36.(2007), p.93(In Chinese) [7] Zhiwu Yu, Hongxia He, Feng Yu: Journal of Architecture and Civil Engineering, Vol.24(2007), p.17(In Chinese) [8] Surong Luo, Jianlan Zheng: Journal of building materials.Vol.9(2006) p.330(In Chinese) [9] Xavier Pintado, Bryan E.
Online since: April 2012
Authors: Rong Ying Huang, Hong Guang Zheng, Yun Fei Guo, Hai Dong Zheng
To reduce the influence of this problem, The material properties of femur/tibia/fibula are usually simply defined as isotropy and single material (hereinafter referred to as single material).
Material properties.
Acknowledgment The authors gratefully acknowledgement research support from Natural Science Foundation of China (50975013).
Zhang: Journal of Clinical Rehabilitative Tissue Engineering Research, Vol. 13 (2009) No.43, pp. 8436-8441.
[6] Moglo K E and Shirazi-Adl A.: Journal of Biomechanics, Vol. 38 (2005), pp. 1075-1083.
Material properties.
Acknowledgment The authors gratefully acknowledgement research support from Natural Science Foundation of China (50975013).
Zhang: Journal of Clinical Rehabilitative Tissue Engineering Research, Vol. 13 (2009) No.43, pp. 8436-8441.
[6] Moglo K E and Shirazi-Adl A.: Journal of Biomechanics, Vol. 38 (2005), pp. 1075-1083.
Online since: June 2019
Authors: Martin Alexa, Romana Halamová, Barbara Kucharczyková, Petr Misák, Dalibor Kocáb
Fig. 1: Poisson’s ratio η is defined as the ratio of contraction to extension and expresses the elastic deformation of a material [7]
The value of the Poisson’s ratio is usually 0 - 0.5 (the value may also be negative for some “auxetic” materials [7]).
The determination of the PR value of cementitious materials can be carried out by for example the resonance method [8], but only in the case of hardened composites after reaching the demoulding compressive strength.
Its value will gradually decrease to a value close to 0.2, which is given for hardened cementitious materials.
Hela, Selected Technological Factors Influencing the Modulus of Elasticity of Concrete, International Journal. of Civil and Environmental.
Lakes, Negative-Poisson's-Ratio Materials: Auxetic Solids, Annual Review of Materials Research. 47 (2017) 63 - 81 [8] ČSN 73 1372.
The determination of the PR value of cementitious materials can be carried out by for example the resonance method [8], but only in the case of hardened composites after reaching the demoulding compressive strength.
Its value will gradually decrease to a value close to 0.2, which is given for hardened cementitious materials.
Hela, Selected Technological Factors Influencing the Modulus of Elasticity of Concrete, International Journal. of Civil and Environmental.
Lakes, Negative-Poisson's-Ratio Materials: Auxetic Solids, Annual Review of Materials Research. 47 (2017) 63 - 81 [8] ČSN 73 1372.
Online since: March 2015
Authors: Abu Hasan Abu Bakar, Noor Faisal Abas, Shardy Abdullah, Ruhizal Roosli, Mazran Ismail
For this purpose, a series of reviews have been done on relevant written documents like journal and proceeding articles, books, thesis, research reports and monographs, as well as documented measured drawings.
From the literature review, the similarities and differences between some selected non-structural elements of the traditional Malay houses are described as follows: i) Wall The literatures showed that in its original form, the wall of the traditional Malay house is constructed form the simple materials of bertam and palm leaves.
Enoch, Integrating the Malay Traditional Design Elements into Contemporary Design: An Approach towards Sustainable Innovation, Procedia-Social and Behavioral Sciences. 129 (2013) 59–67
Nik Ibrahim, Pendekatan Dasar Pemikiran Seni Bina Warisan Melayu Bagi Mendapatkan Keselesaan Hawa Serta Penyelesaian Masalah Iklim dan Persekitaran Dalam Seni Bina Masa Kini, Journal Design + Built. 2 (2009) 18-27
Proceeding of the International Conference on Advanced Science, Engineering and Information Technology 2011, 14 - 15 January 2011, Putrajaya, Malaysia. (2011) 683-688
From the literature review, the similarities and differences between some selected non-structural elements of the traditional Malay houses are described as follows: i) Wall The literatures showed that in its original form, the wall of the traditional Malay house is constructed form the simple materials of bertam and palm leaves.
Enoch, Integrating the Malay Traditional Design Elements into Contemporary Design: An Approach towards Sustainable Innovation, Procedia-Social and Behavioral Sciences. 129 (2013) 59–67
Nik Ibrahim, Pendekatan Dasar Pemikiran Seni Bina Warisan Melayu Bagi Mendapatkan Keselesaan Hawa Serta Penyelesaian Masalah Iklim dan Persekitaran Dalam Seni Bina Masa Kini, Journal Design + Built. 2 (2009) 18-27
Proceeding of the International Conference on Advanced Science, Engineering and Information Technology 2011, 14 - 15 January 2011, Putrajaya, Malaysia. (2011) 683-688
Online since: December 2024
Authors: Xue Zhang, Zhong Qi Dong, En Bao Pan
Journal of Magnetism and Magnetic Materials, 2022:559
Materials Letters, 2016, 184(DEC.1): 294-297
Journal of Magnetic Materials and Devices, 2016
Materials Science Forum, 2016 :850
Materials Science and Engineering, 2019, 762: 138095. 1-138095.9
Materials Letters, 2016, 184(DEC.1): 294-297
Journal of Magnetic Materials and Devices, 2016
Materials Science Forum, 2016 :850
Materials Science and Engineering, 2019, 762: 138095. 1-138095.9
Online since: December 2011
Authors: Jian Hui Qiu, Min Zhang, Eiichi Sakai, Rie Nobe, Makoto Kudo
Introduction
The application of polymer materials is widely expanded due to their advantages, e.g., law cost, lightweight, high strength and machinability, etc.
The amount of disposed oyster shells is approximately 200,000 ton per year in Japan [5], and the availabilities of waste oyster shells are researched such as water clarification [6,7] and composite materials [8-10].
Experimental Materials.
References [1] K.Okubo, T.Fujii and N.Yamashita, JSME International Journal Series A: 48(2005), p. 199 [2] H.Takagi and R.Takura: Journal of the Society of Materials Science, 52(2003), p. 357 [3] L.Qin, J.Qiu, M.Liu, S.Ding, L.Shao, S.Lu, G.Zhang, Y.Zhao and X.Fu: Chemical Engineering Journal, 166(2011), p. 772 [4] M.S.Huda, A..K.Mohanty, L.T.drzal, E.Schut and M.Misra: Journal of Material Science, 40(2005), p. 4221 [5] M.Demura: Monthly review of agriculture, forestry and fishery finance The Norin kinyu, 57(2004), p. 666 [6] M.Torii: Fisheries Engineering, 44(2008), p. 205 [7] H.Kwon, C.Lee, B.
Jun, J.Yun, S.Weon and B.Koopman: Resources, Conservation and Recycling, 41(2004), p. 75 [8] M.Kitagawa, P.Li, F.Maejima and W.Mizuno: Journal of the Society of Materials Science, 51(2002), p. 943 [9] K.Fujita, T.Torii, M.Shibata, A.Hirahara and K.Murakami: Journal of the Japan Research Association for Textile End-Uses, 46(2005), p. 297 [10] H.Kani, T.Yamagami, M.Yoshida, T.Uchiyama, N.Nagano and H.Minoshima: Reports of the Hokkaido Industrial Research Institute, No. 303(2004), p. 75
The amount of disposed oyster shells is approximately 200,000 ton per year in Japan [5], and the availabilities of waste oyster shells are researched such as water clarification [6,7] and composite materials [8-10].
Experimental Materials.
References [1] K.Okubo, T.Fujii and N.Yamashita, JSME International Journal Series A: 48(2005), p. 199 [2] H.Takagi and R.Takura: Journal of the Society of Materials Science, 52(2003), p. 357 [3] L.Qin, J.Qiu, M.Liu, S.Ding, L.Shao, S.Lu, G.Zhang, Y.Zhao and X.Fu: Chemical Engineering Journal, 166(2011), p. 772 [4] M.S.Huda, A..K.Mohanty, L.T.drzal, E.Schut and M.Misra: Journal of Material Science, 40(2005), p. 4221 [5] M.Demura: Monthly review of agriculture, forestry and fishery finance The Norin kinyu, 57(2004), p. 666 [6] M.Torii: Fisheries Engineering, 44(2008), p. 205 [7] H.Kwon, C.Lee, B.
Jun, J.Yun, S.Weon and B.Koopman: Resources, Conservation and Recycling, 41(2004), p. 75 [8] M.Kitagawa, P.Li, F.Maejima and W.Mizuno: Journal of the Society of Materials Science, 51(2002), p. 943 [9] K.Fujita, T.Torii, M.Shibata, A.Hirahara and K.Murakami: Journal of the Japan Research Association for Textile End-Uses, 46(2005), p. 297 [10] H.Kani, T.Yamagami, M.Yoshida, T.Uchiyama, N.Nagano and H.Minoshima: Reports of the Hokkaido Industrial Research Institute, No. 303(2004), p. 75
Online since: October 2022
Authors: Kannan Sekar
Materials Sci. and Engg.
Series: Materials Science and Engineering 178, pp 1-10. [10] K Sekar, K Allesu, MA Joseph.
Mechanical and Tribological Properties of Al6063 Hybrid Composites Reinforced with SiC/ZrO2 by Stir Casting and Thixoforming Process, Materials Science Forum 979 (2020) 47-51
Microstructural Evaluation of Similar and Dissimilar Welding of Aluminum Metal Matrix Hybrid Composite by Friction Stir Welding, Materials Science Forum 979 (2020) 124-128
Mechanical and Tribological Properties of AA7050 Hybrid Composite Reinforced with Nano Al2O3/Micro ZrO2 Particles by Stir Casting Method, Materials Science Forum 969 (2019) 576-581
Series: Materials Science and Engineering 178, pp 1-10. [10] K Sekar, K Allesu, MA Joseph.
Mechanical and Tribological Properties of Al6063 Hybrid Composites Reinforced with SiC/ZrO2 by Stir Casting and Thixoforming Process, Materials Science Forum 979 (2020) 47-51
Microstructural Evaluation of Similar and Dissimilar Welding of Aluminum Metal Matrix Hybrid Composite by Friction Stir Welding, Materials Science Forum 979 (2020) 124-128
Mechanical and Tribological Properties of AA7050 Hybrid Composite Reinforced with Nano Al2O3/Micro ZrO2 Particles by Stir Casting Method, Materials Science Forum 969 (2019) 576-581
Online since: October 2010
Authors: Mei Yang, Wei Xing Zhang, Qing Shen Zeng
The effective properties of woven-composite materials can be determined by analyzing a unit cell [1-8].
Table 1 Properties of materials Material EL(GPa) ET(GPa) GLT(GPa) GTT(GPa) Carbon Fiber 230 40 24 14.3 0.26 Epoxy Resin 2.785 2.785 1.0315 1.0315 0.35 Table 2 Geometry Parameters Parameter t(mm) H(mm) Lu(mm) a(mm) Value 1.27 2.6 10.0 2.2 The stiffness matrices were determined.
W.Chou, Journal of materials science, 1982, P.3211-3220
[2] Naik,N.K. and Shembekar, P.S., J. of composite materials, Vol.26, No. 17,1992, P.2522-2541
[3] Hossein Golestanian and Sherif El-Giazwy, Journal of composite materials, 23(1997); P.2403-2423
Table 1 Properties of materials Material EL(GPa) ET(GPa) GLT(GPa) GTT(GPa) Carbon Fiber 230 40 24 14.3 0.26 Epoxy Resin 2.785 2.785 1.0315 1.0315 0.35 Table 2 Geometry Parameters Parameter t(mm) H(mm) Lu(mm) a(mm) Value 1.27 2.6 10.0 2.2 The stiffness matrices were determined.
W.Chou, Journal of materials science, 1982, P.3211-3220
[2] Naik,N.K. and Shembekar, P.S., J. of composite materials, Vol.26, No. 17,1992, P.2522-2541
[3] Hossein Golestanian and Sherif El-Giazwy, Journal of composite materials, 23(1997); P.2403-2423