Search results

Bever, "Gradient in Polymetric Materials," Material Science and Engineering, vol. 7, pp. 741-746, 1972
Duwez, "Gradient in Composite Materials. ," Materials Science and Engineering vol. 10, pp. 1-8, 1972
Lavernia, " Particulate Reinforced Metal-Matrix Composites - A Review," Journal of Materials Science vol. 26, pp. 1137-1156, 1997
Hopkinson, "Laser Melting Functionally Graded Composition of Waspaloy and Zirconia Powders," Journal of Materials Science and Engineering, vol. 42, pp. 7647-7656, 2007
Riedel, "Processing Techniques for Functionally Graded Materials " Materials Science and Engineering: A 362 (1-2), pp. 81-106, 2003

It is used to improve properties of different materials and constructions or to produce advanced properties of these materials.
Hollow aluminum and silica microsphere is non-reactive microaddition that determine its advantages in producing ecologically friendly materials and in providing materials with additional properties without changing the basic.
Modulus of viscosity is one of the main dynamic characteristics of fill finely divided materials that determine materials and constructions strength properties including the capability to form a rigid frame.
Mun, Studying physico-mechanical properties of cement pastes in presences of blend polymer as chemical admixtures, International Journal of Basic and Applied science 4(3) (2015) 297-302
Kaddo, Building materials and products, Moscow, High education, 2001

Materials Science Forum Vols. *** (2004) pp.401-404 online at http://scientific.net  2004 Trans Tech Publications, Switzerland Research Status Quo of Simulation Design Methods for Ceramic Tool Materials L.Q.
With the development of material and computer science, the higher requirement of the industry on ceramic materials, the computer aided design of ceramic materials is highly imperative.
Currently, Advances in Materials Manufacturing Science and Technology 402 they are mainly used in the areas such as pattern recognition and classification, function approximation, data compressing and predicting etc.
Mukherjee: Computational Material Science Vol. 5 (1996), p. 307 [2] N.
He: Materials for Mechanical Engineering Vol. 26 (2002), p. 7 [4] J.Q.

Many vivo studies have been done to examine various filling materials, techniques, and hand dexterity.
Figure 2 Solubility results of Chitosan/IRM® composite materials observed on the 1st, 7st and 13th days.
On the 13th day show for figure 3 (c, f, i), microleakages found in all the composite materials mentioned above.
Journal of Endodontics.
Journal of Endodontics.

Application of artificial neural network to forecast the tensile fatigue life of carbon material Xiaoling Liaoa , Wenfeng Xub , Zhiqiang Gaoc Chemistry and Environment Science Department, Chongqing University of Arts and Sciences, Chongqing 402160, China a zxc_228@163.com; b xwf_228@163.com; cgzq@cqwu.net Keywords: Artificial neural network, carbon materials, tensile fatigue life, forecast Abstract: Artificial neural network (ANN) is widely applied to the modeling of complex systems, which has become a common modeling method in the study of materials science.
As the ideal candidates for high temperature structural materials, carbon materials are no doubt involved in fatigue loads, so the study on forecasting fatigue life is meaningful.
As preferred high-temperature structural materials, the potential applications for carbon materials are bound to involve fatigue loading.
At the same time, artificial neural network (ANN) is widely applied to the modeling of complex systems, and now it has become a common modeling method in the study of materials science, but the reports using ANN to forecast the fatigue life of material are few.
Journal of Materials Processing Technology, 2002,(122):196-200 Cycle/n Applied stress/MPa �R/Ro/% Fig.4 The network trainrecord of forecast Import Adjusting error Connect error of every nerve cell Target value Export Fig.3 The study sketch of ANN Compare

Lindstrom, A simple concept to achieve a rational chip form, // Journal of Materials Processing Technology, 54 (1995) 12-16
Shirakashi, Chip breaking analysis from the view point of the optimum cutting tool geometry design, Journal of Materials Processing Technology, 62 (1996) 345-351
Strenkowski, Material damage based model for predicting chip breakability, Journal of Manufacturing Science and Engineering, 119 (1997) 675-680
Peklenik, Chip curl, chip breaking and chip control of the difficult-to-cut materials, Ann.
Chang, Assessment of chip-breaking characteristics using new chip-breaking index, Journal of Materials Processing Technology, 173 (2006) 166-171

Chigrin1,c 1FSBES Institute of materials technology of Khabarovsk centre of FEC the Russian Academy of Sciences, Khabarovsk, 153 Tikhookeanskya street, Russia akonevts@narod.ru; bnikola1960@mail.ru; cpal_chig@mail.ru Keywords: Electrospark alloy building, gradient electrode materials, roughness.
Yamamoto, High resolution microscopy study in Cr3C2-doped WC-Co, Journal of material science. 36 (2001) 3885 – 3890
Spriggs, A History of Fine Grained Hardmetal, International Journal of Refractory Metals & Hard Materials. 13 (1995) 241-255
Wahnstrom, Strength and reinforcement of interfaces in cemented carbides, International Journal of Refractory Metals & Hard Materials. 24 (2006) 80–88
Journal of Refractory Metals & Hard Materials. 27 (2009) 817–822

Boucher:Journal of Material Science, Vol.11-9, p1734-1750 (1976) [3] Fanney A.
Radjy:Journal of Material Science, Vol.9-5, p744-752(1974) [5] Graham H., Galbraith.
Building Science for Building Enclosures.
Dissertation, Department of Mechanical and Aerospace Engineering at Syracuse University (2007) [12] Menghao Qin, Rafik Belarbi, Abdelkarim Aït-Mokhtar and Lars-Olof Nilsson: Journal of Material Science, Vol.43-10, p 3655-3663 (2008) [13] Phalguni Mukhopadhyaya, M.
Y L : Journal of Material Science, Vol.40-4, p1013-1015(2005) [15] Tenwolde A.

Tian: Chinese Journal of Applied Mechanics.
Liu: Chinese Journal of Material Research.
Ding, et al: Materials Science and Technology.
Lu: Journal of Mechanical Strength.
Park: Materials Science and Engineering A.

The influence of structure control techniques on the electrochemical performance of PANI electrode materials LI Jing1,2, Huang-ke long1, Lai-yan qing1, Zhao- xiao dong1 1School of chemistry Science and Engineering, Central South University, Changsha city ,Hunan province, 4100831, 2School of Materials Science and Engineering, Southwest University of science and technology, Mianyang city, Si chuan province , 621010 Correspondence: Li Jing ,PhD Tel:+86-015983676338; E-mail: csu_lijing@126.com Supported by Central south university postdoctoral Foundation (09hn1653) Key words : structure control ； PANI electrode materials ；specific capacitance ；cycalability；supercapacitor.
For PANI-S`electrode materials, favorable nano-sized fiber structure is in favour of the contact between the electrode materials and electrolyte.
Journal of Power Sources, 2009, 194( 2):581-587
Journal of electroanalytical chemistry, 2000, 491(1-2):9-21
Journal of Power Sources, 2004, 176( 2):241-245