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Online since: January 2010
Authors: Volker Schulze, Hermann Autenrieth, Matthias Weber, M. Deuchert
Schulze
1,3
1
Institute of Materials Science and Engineering (iwk I)
2
Institute for Reliability of Components and Systems (izbs)
3
Institute of Production Science (wbk)
Universität Karlsruhe, Kaiserstraße 12, 76131 Karlsruhe, Germany
a
Hermann.Autenrieth@iwk1.uni-karlsruhe.de, bMatthias.Weber@izbs.uni-karlsruhe.de,
cDeuchert@wbk.uka.de
Keywords: micro-cutting, finite element simulation, surface work hardening, residual stresses
Abstract.
Material Model.
Elbestawi, 2008, Effects of Strain Hardening and Initial Yield Strength on Machining-Induced Residual Stresses, Journal of Engineering Materials and Technology, 129: 567-579
IMechE, 221, Part B: Journal of Engineering Manufacture, 2007, p. 917-926 [7] O.
Hauk, 1997, Structural and Residual Stress Analysis by Nondestructive Methods, Elsevier Science B.V.
Material Model.
Elbestawi, 2008, Effects of Strain Hardening and Initial Yield Strength on Machining-Induced Residual Stresses, Journal of Engineering Materials and Technology, 129: 567-579
IMechE, 221, Part B: Journal of Engineering Manufacture, 2007, p. 917-926 [7] O.
Hauk, 1997, Structural and Residual Stress Analysis by Nondestructive Methods, Elsevier Science B.V.
Online since: May 2014
Authors: Surasit Rawangwong, Prapas Muangjunburee, WORAPONG BOONCHOUYTAN, Jaknarin Chatthong, Romadorn Romadorn
Materials and Design, 18: pp. 269-273
Materials Science and Engineering B, 148: pp. 82-87
Materials and Design, 31: pp. 3033-3037
Journal of Materials Science, 40: pp.3669-3676
Materials and Design,30: pp. 609-616
Materials Science and Engineering B, 148: pp. 82-87
Materials and Design, 31: pp. 3033-3037
Journal of Materials Science, 40: pp.3669-3676
Materials and Design,30: pp. 609-616
Online since: January 2012
Authors: Jin Sheng Liang, Yan Ding, Gang Xue, Ying Liu
Up to now, the combustion catalysts are mainly made of rare earth catalytic materials, which have the advantages of low cost, easy-available raw materials and thermal stability.
Mao: Journal of hazardous materials. 2010, 175, 658 [7] Rakesh R.
Qi: Technological Sciences. 2010, 53, 3014 [15] Masahiro Tokumura, Hussein Tawfeek Znad and Yoshinori Kawase: Chemical Engineering Science.2006, 61, 6361 [16] M.S.
Liang, et al.: Advanced Materials Research, Vol. 58 (2009), p.47 [23] G.
Zhang, et al.: Advanced Materials Research, Vol. 96 (2010), p.165 [24] L.H.
Mao: Journal of hazardous materials. 2010, 175, 658 [7] Rakesh R.
Qi: Technological Sciences. 2010, 53, 3014 [15] Masahiro Tokumura, Hussein Tawfeek Znad and Yoshinori Kawase: Chemical Engineering Science.2006, 61, 6361 [16] M.S.
Liang, et al.: Advanced Materials Research, Vol. 58 (2009), p.47 [23] G.
Zhang, et al.: Advanced Materials Research, Vol. 96 (2010), p.165 [24] L.H.
Online since: May 2010
Authors: Xiao Ping Li, Yun Yu, Zhou Xu
Oiqeat, Materials Science and Engineering, Vol.390A(2005), p. 166
[3] D.
Baikerikar, Materials Science and Engineering, Vol. 360A(2003),p.46 [7] D.H.
Kainer,Materials Science and Engineering, Vol.: 135A(1991),p.243 [10] H.Dieringa, Y.D.Huang, P.Maier, N.Hort, K.U.Kainer, Materials Science and Engineering Vol. 410-411A(2005),p. 85 [11] V.Kevorkijan, Materials Science and Technology, Vol. 19(10)(2003),p.1386 [12] B.A Mikuchi, W.E.
Mercer, W.G.Green, Light Metal Age, Vol. 6 (1990),p.12 [13] S.Kudela, International Journal of Materials and Product Technology, Vol. 18(1-3)(2003),p. 91 A.
Sodelet, Materials Research, Vol. 14(8)(1999),p.3185 [17] Z.XU, Z.Q.LI, S.Wang, The Chinese Journal of Nonferrous Metal, Vol. 11(2)(2001),p.167 [18] G.Rosas, R.Perez, Materials Science and Engineering Vol. 298A(2001),p.79
Baikerikar, Materials Science and Engineering, Vol. 360A(2003),p.46 [7] D.H.
Kainer,Materials Science and Engineering, Vol.: 135A(1991),p.243 [10] H.Dieringa, Y.D.Huang, P.Maier, N.Hort, K.U.Kainer, Materials Science and Engineering Vol. 410-411A(2005),p. 85 [11] V.Kevorkijan, Materials Science and Technology, Vol. 19(10)(2003),p.1386 [12] B.A Mikuchi, W.E.
Mercer, W.G.Green, Light Metal Age, Vol. 6 (1990),p.12 [13] S.Kudela, International Journal of Materials and Product Technology, Vol. 18(1-3)(2003),p. 91 A.
Sodelet, Materials Research, Vol. 14(8)(1999),p.3185 [17] Z.XU, Z.Q.LI, S.Wang, The Chinese Journal of Nonferrous Metal, Vol. 11(2)(2001),p.167 [18] G.Rosas, R.Perez, Materials Science and Engineering Vol. 298A(2001),p.79
Online since: August 2010
Authors: Wan Shan Wang, Peng Guan, Tian Biao Yu
The main technologies include NC codes compiling, collision detection and material
removal.
The collision detection between grinding wheel and the guide Material Removal.
The essence is not the material removal, but updates the coordinates of the points on the surface and re-modeling.
DeVor: Journal of Manufacturing Science and Engineering Vol. 119 (1997), p. 655-661 [2] Seo.
Kim, et al: International Journal of Advanced Manufacturing Technology Vol. 28 (2006), p. 101-108 [3] Gao Feng: Journal of System Simulation Vol. 20(2008), p. 3183-3188 [4] Luo Shen: Journal of Computer-Aided-Design & Computer Graphics Vol. 13(2001), p. 1022-1027 [5] Xiao Tianyuan, Han xiangli: Journal of System Simulation Vol. 10(1998), p. 1-7 [6] Zhang Xia, Yang Yue: Mechanical Design and Manufacturing Vol. 9(2009), p. 181-184 [7] Li Guangyao, Wang Yundong, Li Qiyan: Journal of Tongji University Vol. 30(2002), p. 1112-1115
The collision detection between grinding wheel and the guide Material Removal.
The essence is not the material removal, but updates the coordinates of the points on the surface and re-modeling.
DeVor: Journal of Manufacturing Science and Engineering Vol. 119 (1997), p. 655-661 [2] Seo.
Kim, et al: International Journal of Advanced Manufacturing Technology Vol. 28 (2006), p. 101-108 [3] Gao Feng: Journal of System Simulation Vol. 20(2008), p. 3183-3188 [4] Luo Shen: Journal of Computer-Aided-Design & Computer Graphics Vol. 13(2001), p. 1022-1027 [5] Xiao Tianyuan, Han xiangli: Journal of System Simulation Vol. 10(1998), p. 1-7 [6] Zhang Xia, Yang Yue: Mechanical Design and Manufacturing Vol. 9(2009), p. 181-184 [7] Li Guangyao, Wang Yundong, Li Qiyan: Journal of Tongji University Vol. 30(2002), p. 1112-1115
Online since: August 2013
Authors: Kamran Ahmad, Zhi Gang Wu, Hassan Junaid Hasham
Cesnik, “Nonlinear aeroelastic analysis of aircraft with high-aspect-ratio wings ,” in Proceedings of the 39th Structures, Structural Dynamics, and Materials Conference, 1998, pp. 20–23
Hodges, “Flight Dynamics of Highly Flexible Flying Wings.,” Journal of Aircraft, vol. 43, no. 6, pp. 1790–1799, 2006
M.J.Patail D H.Hodges, “Limit-cycle oscillations in high-aspect-ratio wings,” Journal of fluids and structures,pp. 107–132, 2001
Journal of Aircraft, vol. 32, no. 2, pp. 313–322, 1995
Kamran Ahmad Wuzhigang Hammad Rahman, “Aeroelastic Analysis of High Aspect Ratio Wing,” in Proceedings of 10th International Bhurban Conference on Science and Technology, 15-19 Jan,p-219-223, 2013.
Hodges, “Flight Dynamics of Highly Flexible Flying Wings.,” Journal of Aircraft, vol. 43, no. 6, pp. 1790–1799, 2006
M.J.Patail D H.Hodges, “Limit-cycle oscillations in high-aspect-ratio wings,” Journal of fluids and structures,pp. 107–132, 2001
Journal of Aircraft, vol. 32, no. 2, pp. 313–322, 1995
Kamran Ahmad Wuzhigang Hammad Rahman, “Aeroelastic Analysis of High Aspect Ratio Wing,” in Proceedings of 10th International Bhurban Conference on Science and Technology, 15-19 Jan,p-219-223, 2013.
Online since: October 2013
Authors: Yan Zhang, Xiao Jin Wan
In order to estimate the influence of tool vibrations on surface degradation, a dynamic tool model is developed and applied to a material removal model.
Acknowlflutements This work is supported by the National Natural Science Foundation of China (Grant No., 51105288).
Shareef, The prediction of surface accuracy in end Milling, ASME, Journal of Engineering Industry, 104 (1982) 272–278
Urbasik, Generation of milled surfaces including tool dynamics and wear, ASME Journal of Engineering for Industry,115 (1993) 245–252
Sutherland, An improved method for cutter runout modeling in the peripheral milling process, Machining Science and Technology 6(1) (2002)1–20
Acknowlflutements This work is supported by the National Natural Science Foundation of China (Grant No., 51105288).
Shareef, The prediction of surface accuracy in end Milling, ASME, Journal of Engineering Industry, 104 (1982) 272–278
Urbasik, Generation of milled surfaces including tool dynamics and wear, ASME Journal of Engineering for Industry,115 (1993) 245–252
Sutherland, An improved method for cutter runout modeling in the peripheral milling process, Machining Science and Technology 6(1) (2002)1–20
Online since: February 2013
Authors: Dai Yong Cao, Yuan Yuan, Zheng Yao, Ji Zhou, Xue Shen Zhu, Xiao Yu Zhang, Ying Chun Wei
The mechanical properties of coal depend on its material composition, coal rank, and water saturation.
Macroscopic type of coal can reflect the material composition of the coal to a certain extent, and different lithotypes have different mechanical properties.
Acknowledgements This work was financially supported by National Science and Technology Major Projects (2011ZX05038-1) and Natural Science Foundation of China (41272181).
References [1] Xiaoming Ni, Xianbo Su and Xiaodong Zhang, in: Coalbed Methane Development Geology, edited by Zhen Dou, Chemical Industry Press, Beijing (2009), In Chinese [2] Dali Guo, et al: submitted to Journal of Southwest Petroleum University (2012), In Chinese [3] Yangmin Li, et al: submitted to Journal of China Coalbed Methane (2010), In Chinese [4] Zhenhong Chen, et al: submitted to Journal of China Coal Society (2009), In Chinese [5] Jianmei Bai, et al: Mater.
National Coalbed Methane Symposium (2010), p.425, In Chinese [6] Daiyong Cao, et al: submitted to Journal of Coal Geology of China (2012), In Chinese [7] Shenggui Liu, et al: submitted to Journal of Liaoning Technical University (2012), In Chinese [8] Hanxiang Wang, et al: submitted to Journal of China Coal (2012), In Chinese [9] Daiyong Cao, et al: submitted to Journal of Geological Review (2002), In Chinese [10] Yiwen Ju, Bo Jang and Guiliang Wang et al, in: Tectonic Coals: Structures and Physical Properties of Reservoirs, edited by Juncheng Pan, China University of Mining and Technology Press, Xuzhou (2005), In Chinese [11] Xianbo Su, et al: submitted to Journal of Coal Geology & Exploration (2003), In Chinese [12] Tonglin Li, et al: submitted to Journal of Geological Mapping (2000), In Chinese
Macroscopic type of coal can reflect the material composition of the coal to a certain extent, and different lithotypes have different mechanical properties.
Acknowledgements This work was financially supported by National Science and Technology Major Projects (2011ZX05038-1) and Natural Science Foundation of China (41272181).
References [1] Xiaoming Ni, Xianbo Su and Xiaodong Zhang, in: Coalbed Methane Development Geology, edited by Zhen Dou, Chemical Industry Press, Beijing (2009), In Chinese [2] Dali Guo, et al: submitted to Journal of Southwest Petroleum University (2012), In Chinese [3] Yangmin Li, et al: submitted to Journal of China Coalbed Methane (2010), In Chinese [4] Zhenhong Chen, et al: submitted to Journal of China Coal Society (2009), In Chinese [5] Jianmei Bai, et al: Mater.
National Coalbed Methane Symposium (2010), p.425, In Chinese [6] Daiyong Cao, et al: submitted to Journal of Coal Geology of China (2012), In Chinese [7] Shenggui Liu, et al: submitted to Journal of Liaoning Technical University (2012), In Chinese [8] Hanxiang Wang, et al: submitted to Journal of China Coal (2012), In Chinese [9] Daiyong Cao, et al: submitted to Journal of Geological Review (2002), In Chinese [10] Yiwen Ju, Bo Jang and Guiliang Wang et al, in: Tectonic Coals: Structures and Physical Properties of Reservoirs, edited by Juncheng Pan, China University of Mining and Technology Press, Xuzhou (2005), In Chinese [11] Xianbo Su, et al: submitted to Journal of Coal Geology & Exploration (2003), In Chinese [12] Tonglin Li, et al: submitted to Journal of Geological Mapping (2000), In Chinese
Online since: July 2016
Authors: Udom Tipparach, Buagun Samran, Emmanuel Nyambod Timah
Materials and Method
TiO2 nanotubes were grown by anodization method at room temperature.
The result of this research work is useful for cleaning TiO2 nanotubes for synthesizing energy conversion materials such as solar cells and solar hydrogen production.
Choi, Fabrication of dye sensitized solar cells by transplanting highly ordered TiO2 nanotube arrays, Solar Energy Materials & Solar Cells. 95 (2011) 184-189
Jiang, Nitrogen-doped TiO2 nanotubes with enhanced photocatalytic activity synthesized by a facile wet chemistry method, Materials Research Bulletin. 44 (2009) 146-150
Hang, Degradation of methyl orange through synergistic effect of zirconia nanotubes and ultrasonic wave, Journal of Hazadous Materials. 188 (2011) 231-234
The result of this research work is useful for cleaning TiO2 nanotubes for synthesizing energy conversion materials such as solar cells and solar hydrogen production.
Choi, Fabrication of dye sensitized solar cells by transplanting highly ordered TiO2 nanotube arrays, Solar Energy Materials & Solar Cells. 95 (2011) 184-189
Jiang, Nitrogen-doped TiO2 nanotubes with enhanced photocatalytic activity synthesized by a facile wet chemistry method, Materials Research Bulletin. 44 (2009) 146-150
Hang, Degradation of methyl orange through synergistic effect of zirconia nanotubes and ultrasonic wave, Journal of Hazadous Materials. 188 (2011) 231-234