Search results

Introduction Metal-organic polymeric frameworks containing metal ions and organic bridging ligands have developed in recent years due to their particular beauty and intriguing architectural diversity and crystal packing motifs along with potential applications as functional materials [1, 2].
ZR2010BL025)，State Key Laboratory of Inorganic Synthesis and Preparative Chemistry (Jilin University)(No. 2011-13), MOE Key Laboratory of Analytical Chemistry for Life Science (Nanjing University)(No.
KLACLS1002) and the National Science Foundation of China (No. 21171132) References [1] X.
Journal of Coordination Chemistry, 13(2006), 1477–1482 [5] Chantal B.
Journal of Coordination Chemistry, 14(2005), 1233–1239

The initial material is a ceramic target, a mixture of Si and prescribed amount of 30 wt% Er2O3.
It is larger than the value (40~60μΩcm) of bulk material reported before.
Acknowledgement This work was supported by National Natural Science Foundation of China, No. 90401002, 60236010,60290081.
This work was supported by National Natural Science Foundation of China, No. 90401002, 60236010,60290081.
Zhao: Journal of Crystal Growth, v 275, n 1-2, p e2263-e2267 (2005) [5] J.

Fig.3 Curves of maximum dry density and materials humectation time It can be seen from the figure 3 that with materials humectation time prolonging, the maximum dry density of each lime dosage soil is decreasing in a certain trend.
Compared with the maximum dry density of lime dosage 3% and 6%,When the dry density of lime dosage is 9%,the maximum dry density reduces a lot, which the difference of dry density is 0.14-0.19 g/cm ³With the same materials humectation time.
The maximum dry density changes little when materials humectation time is between 24h-48h and 48h-72h.
As materials humectation time increases, soil aggregate particles get bigger and pore diameter between the soils aggregate get greater.
With materials humectation time prolonging, the maximum dry density of each lime dosage soil is decreasing in a certain trend.

Abstract: Abrasive jet machining is an efficient technology for the fabrication of three dimensional micro structures on brittle materials.
Introduction Abrasive jet (or abrasive air jet) micro-machining (AJMM) is a promising technology for the fabrication of micro structures on brittle materials.
Journal of Microelectromechanical Systems Vol. 11 (2002), p. 521-527
Journal of Microelectromechanical Systems Vol. 11 (2002), p. 85-90
Experimental Thermal and Fluid Science Vol. 35 (2011), p. 1097–1106

The journal Technovation.
[37] Kassahun, Asmare Emerie; Molla, Alemayehu; (2013) "BPR complementary competence: definition, model and measurement", Business Process Management Journal, Vol. 19 Iss: 3, pp. 575 – 596 [38] Khamba, JS; Singh, CD and Singh H (2013), “Exploring Manufacturing Competencies of Car Manufacturing Unit”, International Conference on Advancements and Futuristic Trends in Mechanical and Materials Engineering, (October 3-6, 2013), pp: 88-97
European Management Journal Vol. 18.
Series: Materials Science and Engineering, 65 (2014), pp: 1-9
Omega: International Journal of Management Science.Vol.34, pp. 150-160

Microstructure of the New Route Wire Fabrication of V3Ga Compound Superconducting Wire Using High Ga Content Cu-Ga/V Precursor Composite Material Satoshi Murakami1, Manabu Mizutani1, Kenji Matsuda2,a, Katsuhiko Nishimura2, Tokimasa Kawabata2 and Yoshimitsu Hishinuma3 1Graduate School of Science and Engineering For Education, University of Toyama, 3190,Gofuku,Toyama,930-8555,Japan 2 Graduate School of Science and Engineering For Research, University of Toyama, 3190,Gofuku,Toyama,930-8555,Japan 3National Institute for Fusion Science,322-6,Toki, Gifu, 509-5292,Japan amatsuda@eng.u-toyama.ac.jp Keywords: superconducting wire, multifilament, V3Ga, SEM, TEM, FIB Abstract.
Hishinuma et. al. thought that the high Ga content in the Cu-Ga compound material was an effective method in order to improve JC of the V3Ga compound wire, just like for the high Sn content processed Nb3Sn wires.
Fujita: Journal of Nuclear Materials 329-333 Part. 2 (2004) 1590 [2]Y.Hishinuma, A.Kikuchi, Y.Iijima, T.Takeuchi, A.Nishimura ：J.Japan Inst.

Sludge from pump returned to the first anoxic complement system and provided nitrate nitrogen microbial biomass with no nitrification reflux. 2. 2 Materials and Reagents Test water used simulated wastewater, which included Glucose, ethanol, KH2PO4, NH4CL, NaHCO3 and inorganic nutrients.
Journal of Environmental Sciences, 2010, 22(3):321-327 [3] He S B, Xue G, Wang B Z.
Journal of Hazardous Materials, 2009, 168(2-3): 704-710
Environmental Engineering Science.
Journal of Environmental Engineering and Science, 2013, 8(1):413-421

Materials and methods Materials Walnut: woolly walnut, originated in Fenyang, Shanxi province of China; Trypsase: Beijing Feng yuan Biology Co., Ltd.; Sodium hydroxide: analytically pure, Luoyang Haohua chemical reagent Co., Ltd.; Formaldehyde: 40%, Yixing Huihuang chemical reagent Co., Ltd.; Coomassie Brilliant Blue: G-250, Beijing Fingal Huaying Co., Ltd.; Bovine serum albumin, standard substance, Xisen Sanhe Group Co., Ltd.
Journal of the Chinese Cereals and Oils Association, Vol. 24 (6):166-170 (2009).
Journal of Chinese institute of food science and technology, Vol. 8 (5): 8-14 (2008).
Journal of the Chinese Cereals and Oils Association, Vol. 23 (2): 99-101 (2008).
Soybean science, Vol. 28 (5): 889-893 (2009).

The characteristic parameters of waste drive axle housing is concerned with nonlinear coupling under different conditions which include load, materials, service condition, failure state and so on.
According to axle housing’s structure, stand test and the welding characteristics of materials [6], it can be concluded that fusion zone between axle tube and axle housing is the weakest position.
Journal of Mechanical Strength, Vol.1 (2008) No.30, pp. 166-169.
Journal of Mechanical Strength, Vol.6 (2008) No.30, pp. 982-987.
Material Engeneering, (2009) No.8,pp. 33-37.

Journal of University of Science and Technology Beijing, 2012, 34(3): 289-297
EBSD and its applications in materials research.
Journal of Materials Engineering, 2008(7): 1-5
Journal of Materials Engineering, 2013(6): 35-39
Materials for Mechanical Engineering, 2007, 31(3): 4-8