Search results

Journal of materials science. 1983:1899-1911 [7] John Banhart.
Progress in Materials Science 46(2001):559-632 [8] Zhang Ming, Zhu Guoyin, Yao Guangchun.
Journal of Materials Science. 18(1983):1899~1911 [13] Kathryn A.
Materials Science and Engineering A 293(2000):157~164 [14] Kan Yingan, Zhang Junyan.
Materials Review.

Jones: International Journal of Mechanical Science(1999a), Vol. 41, pp. 179-208
Belingardi: International Journal of Mechanical Science(1997), Vol. 39, pp. 575-583
Singace: International Journal of Mechanical Science(1999), Vol. 41, pp. 865-890
Adachi: Key Engineering Materials(2003), Vols. 233-236 pp. 239-244
Jones: Journal of composite Materials(1992), Vol. 26, pp. 37-50.

Study on Electronic Materials with Performance of meander-line inverted-F antenna Jing Wei WU, Wei HE, Dan SU and Jing MO School of Physics and Electronic Information, Yunnan Normal University, Kunming, China Corresponding author: Wei HE, email: he99wei@aliyun.com Keywords: Inverted-F antenna, Loaded meander-line, Resonant frequency, Electronic material Abstract.
Acknowledgment This project was supported by National Natural Science programs (50367001, 51267021) and Yunnan Province Science and Technology bureau program (2009ZC055M).
Journal of Microwaves.
[11] Yong-jun XIE, Ying LIU, in: HFSS Theory and Engineering Application,Science Press, Beijing (2009).

It would lead to accurate predictions introducing microstructural features of materials [1-2].
Since this approach has been developed for monophasic metallic materials, it is now extended to biphasic materials in order to be applied to DSS.
Gurson: Journal of Engineering Materials and Technology 44 (1977), p.1-15
Needleman, in: Handbook of Materials Behaviour Models, Academic Press, NY (2001)
Rousselier, in: Handbook of Materials Behaviour Models, Academic Press, NY (2001)

Grinding, a technique for removing abrasive materials, is a chip-removal process that uses an individual abrasive grain as the cutting tool.
Introduction Removal processes of abrasive materials can be very challenging owing to the high power requirements and resulting high temperatures, especially at the workpiece-wheel interface.
Before machining, the test materials were premachined with a 1 mm cut to remove any possible surface irregularities and ensure similar surface properties for all the specimens.
In general, for harder materials and to reduce residual stresses and thermal damage to the workpiece, softer bonds are recommended.
Liu, Journal of Material Process Technology, 211 (2011) 356-263

Materials and Design Vol. 57 (2014), p. 551–559 [2] K.A.
Materials Testing Vol. 56, No. 2 (2014), p. 150–154 [4] M.S.
Life Science Journal Vol. 12, No. 2 (2015), p. 182–188 [7] K.
Journal of Materials Science Vol. 4, No. 4 (2016), p. 88-96 [10] A.
Afshar: Fatigue simulation of elastomeric materials.

Dubinko, et al.: Journal of nuclear materials Vol. 385 (2) (2009), p. 228-230
Surh, et al.: Journal of nuclear materials Vol. 325 (1) (2004), p. 44-52
Xiusan: Advances in Materials Science Vol. 5 (1) (1991), p. 22-28
Xiyan, et al.: Journal of Chongqing University: Natural Science Vol. 31 (12) (2009), p. 1342-1345
Eldrup, et al.: Journal of nuclear materials Vol. 307 (2002), p. 912-917.

Fig.2 The rocking curve of the optimized Mo(101) film 3.1 Electrode materials Fig.3 The XRD of AlN films deposited on different electrode materials Fig.4 The XRD of AlN film in different flows conditions As shown in fig.3, the electrode materials influenced on the preferred orientation of AlN film.
AlN film with (101) crystal preferred orientation can be achieved when Cr/Au/Mo was used as bottom electrode materials, but AlN film have (002) crystal preferred orientation on other bottom electrode materials.
Wen, et al., Key Engineering Materials, 562 (2013) 942-946
Goswami, et al., Indian Journal of Physics, 84 (2010) 1347-1354
Felmetsger, Journal of Vacuum Science & Technology A: Vacuum, Surfaces, and Films, 28 (2010) 69-76

Ro¨sler (1993), Journal of Magnetism and Magnetic Materials 125, 373
Morisako (2005), Journal of Magnetism and Magnetic Materials, 290-291 138
Saiden (2002), Pakistan Journal of Applied Sciences 2(12), 1092
Ganne (2001), Journal of Magnetism and Magnetic Materials, 224(1), 17
Journal of Magnetism and Magnetic Materials, 312(2), 418

Considerable improvement in mechanical properties of the ceramic materials has been achieved by incorporating one or more other components into the base material to form ceramic-matrix composites.
The properties of the nozzle materials are listed in Table 1.
Based on the physical and chemical compatibility analysis [7-9], the compositions of the SiC/(W,Ti)C FGM nozzle materials were determined and listed in Table 2.
Zhao: Design and Fabrication of Functionally Gradient Ceramic Tool Materials and Their Cutting Performance (Ph.
Deng: Journal of Materials Processing Technology, Vol.98 (2000) No.3, pp.292-298