Sort by:
Publication Type:
Open access:
Publication Date:
Periodicals:
Search results
Online since: July 2015
Authors: Jin Ping Yang, Heng Yong Wei, Jing Wang
Preparation of TZP/glass composites as dental ceramic materials
Jinping Yang1,2,a, Jing Wang1,2,b, Hengyong Wei1,2,c
1Collelge of Materials Science and Engineering, Hebei United University, Tangshan 063009, China
2Key Laboratory of Inorganic material of Hebei Province, Tangshan 063009, China
aimjp_yang@163.com, bwangj2004@heuu.edu.cn, cwhy_why2000@163.com
Keywords: Nano zirconia, Dental ceramic materials, Mechanical performance, Glass frits
Abrstract.
Introduction In recent years, Y-TZP( tetragonal zirconia stabilized by yttrium) ceramic materials have attracted extensive attention in oral medicine as novel dental restoration materials.
Meanwhile the interspaces inside the materials are filled up with glassy phases.
Conclusions Glass phases are introduced in ceramic materials by adding in small amount of frit powders.
Zhang, et al, Research on the sintering processing of the yttria stabilized zirconia nano powders, Journal of Materials Engineering. 2(2009) 38-42
Introduction In recent years, Y-TZP( tetragonal zirconia stabilized by yttrium) ceramic materials have attracted extensive attention in oral medicine as novel dental restoration materials.
Meanwhile the interspaces inside the materials are filled up with glassy phases.
Conclusions Glass phases are introduced in ceramic materials by adding in small amount of frit powders.
Zhang, et al, Research on the sintering processing of the yttria stabilized zirconia nano powders, Journal of Materials Engineering. 2(2009) 38-42
Online since: July 2012
Authors: V. Teixeira, J.O. Carneiro, S. Azevedo, F. Fernandes, J. Neves
Tan, Construction and Building Materials, 17 (2003) 181-187
[4] M.E.
Sobole, Construction and Building Materials, 24 (2010) 2060-2071 [6] A.
Newton, Materials Science and Engineering B 138 (2007) 144-150 [4] K.M.
Butsugan, Journal of Materials Science 29 (1994) 5911 [6] Fotou G.P., S.
Yuan, Journal of Materials Science and Technology 22 (2006) 239-244 [27] P.
Sobole, Construction and Building Materials, 24 (2010) 2060-2071 [6] A.
Newton, Materials Science and Engineering B 138 (2007) 144-150 [4] K.M.
Butsugan, Journal of Materials Science 29 (1994) 5911 [6] Fotou G.P., S.
Yuan, Journal of Materials Science and Technology 22 (2006) 239-244 [27] P.
Online since: October 2012
Authors: Lei Ma
Green building materials
Concept.
Green building materials is also called ecological building materials.
Compared with traditional building materials, green building materials has the following characteristics and advantages: i.
Cai: New Building Materials, (2006) No.1, p.40.
Ding: Soybean Science, Vol. 28 (2009) No.4, p.715
Green building materials is also called ecological building materials.
Compared with traditional building materials, green building materials has the following characteristics and advantages: i.
Cai: New Building Materials, (2006) No.1, p.40.
Ding: Soybean Science, Vol. 28 (2009) No.4, p.715
Online since: May 2012
Authors: Bo Zhou, Ji Wei Li, Peng Shuai
Effect of grain orientation distribution on anisotropy of idealized granular materials
Bo Zhou1, a, Jiwei Li1, b, Peng Shuai1, c
1 School of Civil Engineering and Mechanics, Huazhong University of Science and Technology, Wuhan 430074, Hubei of China
azhoubohust@smail.hust.edu.cn, biamliji_007@yahoo.com.cn, cpengshuai90331@sina.com
Keywords: granular materials, orientation distribution, anisotropy, Discrete Element Method
Abstract.
The regular grain orientation of granular materials is a common phenomenon in nature.
For cohesiveless granular materials, and can be determined by the equations.
Sun, Q., et al., Advances in the micro-macro mechanics of granular soil materials.
Computational Materials Science, 2004. 29: p. 494-498
The regular grain orientation of granular materials is a common phenomenon in nature.
For cohesiveless granular materials, and can be determined by the equations.
Sun, Q., et al., Advances in the micro-macro mechanics of granular soil materials.
Computational Materials Science, 2004. 29: p. 494-498
Online since: March 2013
Authors: Yin Jie Wang, Ji Ping Liu, Ze Quan Liu, Mei Xiu Kan
The synthesis of Lithium Aluminate materials and its performance of CO2 absorption
Yinjie Wanga, Jiping Liub , Meixiu Kanc and Zequan Liud
School of Material Science and Engineering, Beijing Institute of Technology,
Beijing, China, 100081
awangyinjie@pku.org.cn, bliujp@bit.edu.cn,kanmeixiu@126.com,dliuzq1988@foxmail.com
Key words : Lithium aluminate ; Absorption; Carbon dioxide
Abstract.
In this paper, we use Nanoscale α-Al2O3 as raw materials to prepare the Lithium aluminate (Li5AlO4), and explored the impacts of Li5AlO4 materials CO2 absorption from the factors of material structure and surface morphology etc.
The preparation of Li5AlO4 Li5AlO4 materials were synthesized by high temperature solid-state method.
The materials’ structures are similar with the PDF card 72-0792.
Yamaguchi T., Niitsuma T., Lithium silicate based membranes for high temperature CO2 separation, Journal of Membrane Science, 2007, 294: 16-21()
In this paper, we use Nanoscale α-Al2O3 as raw materials to prepare the Lithium aluminate (Li5AlO4), and explored the impacts of Li5AlO4 materials CO2 absorption from the factors of material structure and surface morphology etc.
The preparation of Li5AlO4 Li5AlO4 materials were synthesized by high temperature solid-state method.
The materials’ structures are similar with the PDF card 72-0792.
Yamaguchi T., Niitsuma T., Lithium silicate based membranes for high temperature CO2 separation, Journal of Membrane Science, 2007, 294: 16-21()
Online since: October 2007
Authors: Jing Kun Guo, Yu Bai Pan, Hua Min Kou
The Thinking on Multiphase Materials
Jingkun Guo*, Huamin Kou, Yubai Pan
State Key Lab of High Performances Ceramics and Superfine Microstructure
Shanghai Institute of Ceramics, Chinese Academy of Sciences
1295 Ding-Xi Road, Shanghai, 200050, China
*jkguo@sunm.shcnc.ac.cn
Keywords: Multiphase materials, ceramics, alumina, core-shell
Abstract.The main problems for multiphase materials are the even mixing and the bonding or
reacting among two or more phases, as well as the states of their grain boundaries.
Even mixing Even mixing between each other material is important for multiphase materials.
Reactions for multiphase materials It's required that no reactions occurs among each phases for multiphase materials.
Therefore, multiphase materials are a good target for the material designing.
Nanotechno. , 6, (2006) (in press) [13]Yu-bai PAN, Jian-hui QIU, and Mikio MORITA, "The Mechanical Properties and Microstructure of SiC-AlN Particulate Composite", Journal of Materials Science, 33, (1998) p1233-1237 [14] Xiaomei Shi, Yubai Pan, Jingkun Guo, Ceram.
Even mixing Even mixing between each other material is important for multiphase materials.
Reactions for multiphase materials It's required that no reactions occurs among each phases for multiphase materials.
Therefore, multiphase materials are a good target for the material designing.
Nanotechno. , 6, (2006) (in press) [13]Yu-bai PAN, Jian-hui QIU, and Mikio MORITA, "The Mechanical Properties and Microstructure of SiC-AlN Particulate Composite", Journal of Materials Science, 33, (1998) p1233-1237 [14] Xiaomei Shi, Yubai Pan, Jingkun Guo, Ceram.
Online since: December 2013
Authors: Shu Jun Gao, Zhi Zhong Li, Ya Bo Hu, Hong Liang Ji, Chao Fang Dong, Xiao Gang Li, Seng Wang
Corrosion Behavior of Zn and Cu as Grounding Material in Shanbei Soil Solution
Sen Wang1, a, Shujun Gao2, Zhizhong Li1, Yabo Hu2, Hongliang Ji1, Chaofang Dong2 and Xiaogang Li2
1Power Network Grounding Engineering Technology Lab of State Grid Corporation, Shaanxi Electric Power Research Institute, Shaanxi Xi’an 710054, China
2Corrosion and Protection Center, Institute of Advanced Materials and Technology, University of Science and Technology Beijing, Beijing 100083, China
awangsen01@yahoo.com.cn
Keywords: Grounding material, Zn, Cu, Galvanic corrosion, Stray current.
The corrosion behavior of typical grounding materials Zn and Cu in Shanbei soil solution was studied by immersion test technique, galvanic corrosion current measurement and simulated stray current test.
Experiment The materials used here were pure Zn and Cu.
Conclusions The corrosion behavior of Zn and Cu act as the typical grounding materials was studied in this work, the main conclusions can be drawn as below: (1) The corrosion rate of Zn was higher than Cu in Shanbei soil solution.
Acknowledgments This work is supported by the 2009 Science and Technology Project from State Grid Corporation of China: research on material, structure and anti-corrosion technique for grounding grid.
The corrosion behavior of typical grounding materials Zn and Cu in Shanbei soil solution was studied by immersion test technique, galvanic corrosion current measurement and simulated stray current test.
Experiment The materials used here were pure Zn and Cu.
Conclusions The corrosion behavior of Zn and Cu act as the typical grounding materials was studied in this work, the main conclusions can be drawn as below: (1) The corrosion rate of Zn was higher than Cu in Shanbei soil solution.
Acknowledgments This work is supported by the 2009 Science and Technology Project from State Grid Corporation of China: research on material, structure and anti-corrosion technique for grounding grid.
Online since: April 2009
Authors: Paul Koltun, Trevor Kearney, Darryl Jones, Mahnaz Z. Jahedi, Stefan Gulizia
Thermal Fatigue Studies Using HF Induction Heating of Die Materials
for Light Metals Casting
S.
Koltun 1,3 1 CAST CRC, UDP No 055, the University of Queensland, Brisbane QLD 4072 Australia 2 CSIRO Materials Science & Engineering, Normanby Road, Clayton, Vic, 3169, Australia 3 CSIRO Sustainable Ecosystems Normanby Road, Clayton, Vic, 3169, Australia a stefan.gulizia@csiro.au Keywords: thermal fatigue, tool materials Abstract In this study a new thermal fatigue test rig has been developed that can apply a net energy input to materials with different physical properties using HF induction heating.
The results show materials with high thermal conductivity such as tungstenbased materials are more resistant to thermal fatigue cracking than conventionally used hot work tool steels for HPDC dies.
The results show die materials with high thermal conductivities containing tungsten are more resistant to thermal fatigue cracking than commonly used ferrous die materials in HPDC conditions.
References [1] Klobear, D., Tusek, J. and Taljat, B. (2008) Thermal fatigue of materials for die casting tooling, Materials Science and Engineering A 472 (2008) 198-207 [2] Sjostrom, J. and Bergstron, J. (2004) Thermal fatigue testing of chromium martensite hot-work tool steel after austenitizing treatments, Journal of Materials Processing Technology 153-154 (2004) 1089-1096 [3] Persson, A., Hogmark, S. and Bergstrom, J. (2004) Simulation and evaluation of thermal fatigue cracking of hot work tool steels, International Journal of Fatigue 26 (2004) 1095-1107 [4] Gulizia, S., Jahedi, M.
Koltun 1,3 1 CAST CRC, UDP No 055, the University of Queensland, Brisbane QLD 4072 Australia 2 CSIRO Materials Science & Engineering, Normanby Road, Clayton, Vic, 3169, Australia 3 CSIRO Sustainable Ecosystems Normanby Road, Clayton, Vic, 3169, Australia a stefan.gulizia@csiro.au Keywords: thermal fatigue, tool materials Abstract In this study a new thermal fatigue test rig has been developed that can apply a net energy input to materials with different physical properties using HF induction heating.
The results show materials with high thermal conductivity such as tungstenbased materials are more resistant to thermal fatigue cracking than conventionally used hot work tool steels for HPDC dies.
The results show die materials with high thermal conductivities containing tungsten are more resistant to thermal fatigue cracking than commonly used ferrous die materials in HPDC conditions.
References [1] Klobear, D., Tusek, J. and Taljat, B. (2008) Thermal fatigue of materials for die casting tooling, Materials Science and Engineering A 472 (2008) 198-207 [2] Sjostrom, J. and Bergstron, J. (2004) Thermal fatigue testing of chromium martensite hot-work tool steel after austenitizing treatments, Journal of Materials Processing Technology 153-154 (2004) 1089-1096 [3] Persson, A., Hogmark, S. and Bergstrom, J. (2004) Simulation and evaluation of thermal fatigue cracking of hot work tool steels, International Journal of Fatigue 26 (2004) 1095-1107 [4] Gulizia, S., Jahedi, M.
Online since: November 2012
Authors: Yan Guo Yin, Jian Wei Yu, Xiang Nan Jiao, Tao You, Ming Hua Jiao, Ting Xie
Acknowledgements
This work was financially supported by the Natural Science Foundation of China (Grant No. 50975072 and Grant No. 51075114).
Jiang: Auto Technology and Materials, In Chinese, Vol. 3(2009), p. 10-13
Haryhiko: Materials Science and Engineering A, Vol. 529(2011), p. 275-281
Ouyang: Tribological Journal, In Chinese, Vol. 27(2007), p. 284-288
Tian: China Nonferrous Metal Journal, In Chinese, Vol. 21(2011), p.1038-1044.
Jiang: Auto Technology and Materials, In Chinese, Vol. 3(2009), p. 10-13
Haryhiko: Materials Science and Engineering A, Vol. 529(2011), p. 275-281
Ouyang: Tribological Journal, In Chinese, Vol. 27(2007), p. 284-288
Tian: China Nonferrous Metal Journal, In Chinese, Vol. 21(2011), p.1038-1044.