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Online since: June 2015
Authors: P. Sengottuvel, N.R.R. Anbusagar, S. Senthamilperarasu, B. Shanmuganathan, P. Padmini
International Journal of Applied Mechanics and Materials, 2012, 159, 176-180
Journal of Materials Processing Technology, 87(1-3), 139-145
Tsai: (2001) Semi-empirical model on work removal and toolwear in Electrical Discharge Machining, Journal of Materials Processing Technology, Vol. 114 (1), pp.1-17 [9] B.H.
Tosun: (2004) A study on kerf and material removal rate in wire electrical discharge machining based on Taguchi method Journal of Materials Processing Technology, Vol. 152, pp. 316–322 [12] C.J.
Villa: (2005) Material removal rate and electrode wear study on the EDM of silicon carbide Journal of Materials Processing Technology, Vol. 164–165, pp. 889–896 [13] K.
Journal of Materials Processing Technology, 87(1-3), 139-145
Tsai: (2001) Semi-empirical model on work removal and toolwear in Electrical Discharge Machining, Journal of Materials Processing Technology, Vol. 114 (1), pp.1-17 [9] B.H.
Tosun: (2004) A study on kerf and material removal rate in wire electrical discharge machining based on Taguchi method Journal of Materials Processing Technology, Vol. 152, pp. 316–322 [12] C.J.
Villa: (2005) Material removal rate and electrode wear study on the EDM of silicon carbide Journal of Materials Processing Technology, Vol. 164–165, pp. 889–896 [13] K.
Online since: June 2012
Authors: Bin Li, Hong Wang
Introduction
Titanium and its alloys are utilized in aero-engine and airframe manufacture because of their outstanding strength to density ratios relative to other materials.
In addition the susceptibility of titanium to work-harden during machining impair their machining ability, hence they are referred to as difficult-to-machine materials.
As for capabilities, especially fatigue resistance, titanium alloy is better than other materials.
There have been several attempts to improve the machining ability of titanium alloys when machining dry and conventional coolant supply using advanced and conventional cutting tool materials.
Liansheng: Chinese Journal of Aeronautics Vol. 23 (2010), p. 386-392
In addition the susceptibility of titanium to work-harden during machining impair their machining ability, hence they are referred to as difficult-to-machine materials.
As for capabilities, especially fatigue resistance, titanium alloy is better than other materials.
There have been several attempts to improve the machining ability of titanium alloys when machining dry and conventional coolant supply using advanced and conventional cutting tool materials.
Liansheng: Chinese Journal of Aeronautics Vol. 23 (2010), p. 386-392
Online since: September 2021
Authors: Ajay Kumar Kaviti, Amit Kumar Thakur, J. Ronald Aseer
Composite materials are made with different materials that are physically and chemically different alienated by interfaces.
The compressive strength of the hybrid composite was approximately the same as that of the matrix materials, however its impact strength was slightly higher than that of the matrix material [16].
Materials and Methods Raw Materials.
Journal of Composite Materials, 48(28), 3445-34. https://doi.org/10.1177/0021998313501924 [15] Ahmed, K.S., & Vijayarangan, S. (2008).
Journal of Materials Processing Technology, 207, 330-335. https://doi.org/10.1016/j.jmatprotec.2008.06.038 [16] John, K.N.S. (2004).
The compressive strength of the hybrid composite was approximately the same as that of the matrix materials, however its impact strength was slightly higher than that of the matrix material [16].
Materials and Methods Raw Materials.
Journal of Composite Materials, 48(28), 3445-34. https://doi.org/10.1177/0021998313501924 [15] Ahmed, K.S., & Vijayarangan, S. (2008).
Journal of Materials Processing Technology, 207, 330-335. https://doi.org/10.1016/j.jmatprotec.2008.06.038 [16] John, K.N.S. (2004).
Online since: September 2014
Authors: Nataliya A. Gavrilenko, Mikhail A. Gavrilenko, Yurii G. Slizhov, Zhanna V. Faustova, Tatiana A. Kasymova
Many papers have reported on the synthesis, characterization, stability, and application of these materials [1, 2].
Mesoporous sorbents are used in various fields of chemical researches as chromatographic material [3], gas sensing [4] and catalytically active materials [5].
Such material possesses enhanced gas sensitivity and chromatographic materials [7, 8].
Bhat, Exploring the Potential of Mesoporous Silica, SBA-15, as an Adsorbent for Light Hydrocarbon Separation, Chemical Materials, 14 (2002) 304-309
Tsutsumi, Adsorption Characteristics of Organosilica Based Mesoporous Materials, Langmuir, 20 (2004) 7139-7145
Mesoporous sorbents are used in various fields of chemical researches as chromatographic material [3], gas sensing [4] and catalytically active materials [5].
Such material possesses enhanced gas sensitivity and chromatographic materials [7, 8].
Bhat, Exploring the Potential of Mesoporous Silica, SBA-15, as an Adsorbent for Light Hydrocarbon Separation, Chemical Materials, 14 (2002) 304-309
Tsutsumi, Adsorption Characteristics of Organosilica Based Mesoporous Materials, Langmuir, 20 (2004) 7139-7145
Online since: November 2011
Authors: Li Ping Wang, Er Jun Guo, Si Cong Zhao
Research Materials of Chills Effect on the Solidification
Process of ZM5 Shell
Sicong Zhao1, a, Erjun Guo1, b and Liping Wang1, c
1 College of Materials Science and Engineering, Harbin University of Science and Technology, Harbin, Heilongjiang, 150000, China
azscwr@163.com, bguoerjun@126.com, clp_wang2003@126.com
Keywords: ZM5, chill, shrinkage porosity, thin-walled casting
Abstract.
So the gray iron and steel is not suitable for materials of chills.
Bohlen: Material Science and Technology Vol. 24 (2008), p. 991 [2] E.
Matthew: Journal of the Minerals Vol. 60 (2008), p. 57 [3] J.
Zhao: China Aeronautical Materials Handbook (China Standard Press, Beijing 2002)
So the gray iron and steel is not suitable for materials of chills.
Bohlen: Material Science and Technology Vol. 24 (2008), p. 991 [2] E.
Matthew: Journal of the Minerals Vol. 60 (2008), p. 57 [3] J.
Zhao: China Aeronautical Materials Handbook (China Standard Press, Beijing 2002)
Online since: June 2015
Authors: Cătălin Popa, Viorel Cândea, Violeta Merie
Misra, Development of iron based brake friction MMC used for military aircraft application by a new P/M route, Journal of Minerals & Materials Characterization & Engineering 10 (2011) 693-705
Srinivas, Friction and wear behavior of laser-sintered iron-silicon carbide composites, Journal of Materials Processing Technology 209 (2009) 5429-5436
Das, Synthesis and characterization of TiC-reinforced iron-based composites, Journal of Materials Science 39 (2004) 5735-5742
Ahmad, Characterization of Fe-Cr-Al2O3 composites fabricated by powder metallurgy method with varying weight percentage of alumina, Journal of Physical Science 29 (2008) 89-95
Misra, Development of iron based brake friction material by hot powder preform forging technique used for medium to heavy duty applications, Journal of Minerals & Materials Characterization & Engineering 10 (2011) 231-244.
Srinivas, Friction and wear behavior of laser-sintered iron-silicon carbide composites, Journal of Materials Processing Technology 209 (2009) 5429-5436
Das, Synthesis and characterization of TiC-reinforced iron-based composites, Journal of Materials Science 39 (2004) 5735-5742
Ahmad, Characterization of Fe-Cr-Al2O3 composites fabricated by powder metallurgy method with varying weight percentage of alumina, Journal of Physical Science 29 (2008) 89-95
Misra, Development of iron based brake friction material by hot powder preform forging technique used for medium to heavy duty applications, Journal of Minerals & Materials Characterization & Engineering 10 (2011) 231-244.
Online since: January 2007
Authors: Zhao Hui Deng, Zhong Wei Hu, Bi Zhang
Introduction
In the last decade, nanostructured materials have been developed rapidly.
Generally, in grinding of ceramic materials, material removal mechanisms can be classified as inelastic deformation and brittle fracture, the former includes ductile mode grinding and pulverization mode grinding [7-9].
Conclusions This study investigated the material removal mechanisms in grinding of nanostructured materials.
Gallois: Nanostrucrured Materials Vol.10(5) (1998),pp.875-891 [2] H.Chen, X.H.Lin and Y.Zeng, et al: J.Chin.Ceram.Soc.
Zhang: Journal of Japan Society for Abrasive Technology Vol.47(3)(2003),pp.131-134 [8] S.
Generally, in grinding of ceramic materials, material removal mechanisms can be classified as inelastic deformation and brittle fracture, the former includes ductile mode grinding and pulverization mode grinding [7-9].
Conclusions This study investigated the material removal mechanisms in grinding of nanostructured materials.
Gallois: Nanostrucrured Materials Vol.10(5) (1998),pp.875-891 [2] H.Chen, X.H.Lin and Y.Zeng, et al: J.Chin.Ceram.Soc.
Zhang: Journal of Japan Society for Abrasive Technology Vol.47(3)(2003),pp.131-134 [8] S.
Online since: October 2006
Authors: Dan Dan Lin, Jie Xu, Ke Ao Hu, Tong Xiang Fan, Bin Yuan Zhao, Xian Chang He, Rong Bin Li, Di Zhang
CVD grow of nano diamond and other carbon materials on porous carbon
Binyuan Zhao1∗, Rong Bin Li
1,2
, Jie Xu1,3 , Dan Dan Lin
1,4
, Xian Chang He
1,
Tong Xiang Fan
1
, Di Zhang
1
, Keao Hu
1
1 National Key Lab of metal matrix composite materials, Shanghai Jiao Tong University, China
2 Shanghai Dian Ji Institute, China
3 Institute of Environmental Science and Engineering, Nanyang Technological University,
Singapore
4 Tsing Hua University, Beijing, China
Keywords: CVD, nano, carbon, diamond, porous.
Reference [1] E. cappelli, S. orlando, G. mattei, C. scilletta, F. corticelli, P. ascarelli: Applied Physics A: Materials Science and Processing Vol. 79 (2004), p. 2063 [2] Kurt, R.; Bonard, J.
-M.; Karimi, A.: Carbon Vol. 39 (2001), p. 1723 [3] Shimizu, Yoshiki; Sasaki, Takeshi; Ito, Tsuyohito; Terashima, Kazuo; Koshizaki, Naoto: Journal of Physics D: Applied Physics Vol. 36 (2003), p. 2940 [4] Fujita, J.; Ishida, M.; Ichihashi, T.; Ochiai, Y.; Kaito, T.; Matsui, S.: Nuclear Instruments and Methods in Physics Research, Section B: Beam Interactions with Materials and Atoms Vol. 206 (2003), p. 472 [5] Varadan, V.K.; Hollinger, R.D.; Varadan, V.V.; Xie, J.; Sharma, P.K.: Smart Materials and Structures Vol. 9 (2000), p. 413 [6] Xin Tang, Bin Yuan Zhao, Ke Ao Hu: Materials Letters 59 (2005), p. 1673 [7] Lin, Chao Hsun; Lee, Shu Hsing; Hsu, Chih Ming; Tsai, Ming Her; Kuo, Cheng Tzu: Materials Research Society Symposium - Proceedings, Vol. 776 (2003), p. 219 [8] Kurt, Ralph; Bonard, Jean-Marc; Karimi, Ayatollah: Materials Research Society Symposium - Proceedings Vol. 633 (2001), p.
A1321 [9] Shen, Lu; Xiao, Youming; Ma, Ying; Galasso, Francis S.; Suib, Steven L.; Freihaut, James D.: Materials Research Society Symposium - Proceedings Vol. 351, Molecularly Designed ltrafine/Nanostructured Materials, (1994), p. 147 [10] Liu, X.W.; Lin, J.H.; Hsieh, W.J.; Shih, H.C.: Diamond and Related Materials Vol. 11 (2002), Proceedings of Diamond 2001, the 12th Conference on Diamond, Diamond-like materials, Carbon Nanotubes, Nitrides and Silicon Carbide, p. 1193 [11] V.
Durrant: Materials Science and Engineering B69-70 (2000), p. 171 [12] Rossi, M.; Terranova, M.L.; Piccirillo, S.; Sessa, V.; Manno, D.: Chemical Physics Letters Vol. 402 (2005), p. 340-345 [13] M.
Reference [1] E. cappelli, S. orlando, G. mattei, C. scilletta, F. corticelli, P. ascarelli: Applied Physics A: Materials Science and Processing Vol. 79 (2004), p. 2063 [2] Kurt, R.; Bonard, J.
-M.; Karimi, A.: Carbon Vol. 39 (2001), p. 1723 [3] Shimizu, Yoshiki; Sasaki, Takeshi; Ito, Tsuyohito; Terashima, Kazuo; Koshizaki, Naoto: Journal of Physics D: Applied Physics Vol. 36 (2003), p. 2940 [4] Fujita, J.; Ishida, M.; Ichihashi, T.; Ochiai, Y.; Kaito, T.; Matsui, S.: Nuclear Instruments and Methods in Physics Research, Section B: Beam Interactions with Materials and Atoms Vol. 206 (2003), p. 472 [5] Varadan, V.K.; Hollinger, R.D.; Varadan, V.V.; Xie, J.; Sharma, P.K.: Smart Materials and Structures Vol. 9 (2000), p. 413 [6] Xin Tang, Bin Yuan Zhao, Ke Ao Hu: Materials Letters 59 (2005), p. 1673 [7] Lin, Chao Hsun; Lee, Shu Hsing; Hsu, Chih Ming; Tsai, Ming Her; Kuo, Cheng Tzu: Materials Research Society Symposium - Proceedings, Vol. 776 (2003), p. 219 [8] Kurt, Ralph; Bonard, Jean-Marc; Karimi, Ayatollah: Materials Research Society Symposium - Proceedings Vol. 633 (2001), p.
A1321 [9] Shen, Lu; Xiao, Youming; Ma, Ying; Galasso, Francis S.; Suib, Steven L.; Freihaut, James D.: Materials Research Society Symposium - Proceedings Vol. 351, Molecularly Designed ltrafine/Nanostructured Materials, (1994), p. 147 [10] Liu, X.W.; Lin, J.H.; Hsieh, W.J.; Shih, H.C.: Diamond and Related Materials Vol. 11 (2002), Proceedings of Diamond 2001, the 12th Conference on Diamond, Diamond-like materials, Carbon Nanotubes, Nitrides and Silicon Carbide, p. 1193 [11] V.
Durrant: Materials Science and Engineering B69-70 (2000), p. 171 [12] Rossi, M.; Terranova, M.L.; Piccirillo, S.; Sessa, V.; Manno, D.: Chemical Physics Letters Vol. 402 (2005), p. 340-345 [13] M.
Online since: January 2022
Authors: Margono Margono, Bambang Hari Priyambodo, Kacuk Cikal Nugroho
There is 3 times in corrosion resistance from non-treated materials of 0.378 mpy to 0.117 mpy.
Lemon, Biomaterials Science, An Introductions to Materials in Medicine 2ndEdition, Elsevier, California USA, 2004
Ji, Surface Layer Characteristics of S30432 Austenite Stainless Steel After Shot Peening, Materials Transactions, 53, No. 5, pp. 1002-1006, 2012
Zhao, One-year Biodegradation Study of UHMWPE as Artificial Joint Materials: Variation of Chemical Structure and Effect on Friction and Wear Behavior, 2011
Journal of Corrosion Science and Engineering, 17, 2014.
Lemon, Biomaterials Science, An Introductions to Materials in Medicine 2ndEdition, Elsevier, California USA, 2004
Ji, Surface Layer Characteristics of S30432 Austenite Stainless Steel After Shot Peening, Materials Transactions, 53, No. 5, pp. 1002-1006, 2012
Zhao, One-year Biodegradation Study of UHMWPE as Artificial Joint Materials: Variation of Chemical Structure and Effect on Friction and Wear Behavior, 2011
Journal of Corrosion Science and Engineering, 17, 2014.
Online since: November 2010
Authors: Ren Qing Wang
References
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[8] ZhiJun Wang, PanLai Li, ZhiPing Yang et al.: Journal of Inorganic Materials,Vol.25 (2009), p. 1069
Wu et al.: Materials Science and Engineering B, Vol.121 (2005), p. 272
Clem: submitted to Journal of Materials Research (2003).
[4] MingKang, Kenan Xie, Zhongyuan Lu et al.: Journal of Sichuan University: Engineering Science Edition, Vol. 37 (2005), p. 65
[8] ZhiJun Wang, PanLai Li, ZhiPing Yang et al.: Journal of Inorganic Materials,Vol.25 (2009), p. 1069
Wu et al.: Materials Science and Engineering B, Vol.121 (2005), p. 272
Clem: submitted to Journal of Materials Research (2003).