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Thereafter, on a global scale, set off a craze of the theory with solid polymer electrolyte materials research and technology development, a lot of research work has been in the field to start and made ​​great achievements in the preparation and study of different substrate materials composite polymer electrolytes, the most promising as lithium solid electrolyte materials.
With the increased population growth, environmental pollution and energy critical global issues, development and application of renewable and environmentally friendly new energy materials has become the field of materials science in a very important and active side, and caused great concern of the world and attention.
So far, it has a large number of high conductivity of solid materials to replace the liquid electrolyte.
The composite polymer electrolyte materials has become an intersection of many disciplines including materials science, chemistry, physics, and the content may lead to the field of new energy materials, in particular, is a new technological revolution in the field of battery materials, which study of the problem will continue and in-depth.
Wieczorek, Temperature dependence of conductivity of mixed-phase composite polymer solid electrolytes[J], Materials Science and Engineering: B, 1992, 15(2): 108-114

INTRODUCTION Composite materials play a vital role in the aerospace industry since 1970s, for its multiple advantages.
Therefore, the monitoring of the structural health of CFRP materials by means of electrical conductivity is feasible by exploiting the inherent conductivity of the carbon fiber.
Ali, Structural health management using wave propagation techniques, in: Proceedings of ISSS 2005 International Conference on Smart Materials Structures and Systems, July 28–30, 2005, Bangalore, India
Composite Science and Technology 2002;62:629–39
Advance Composite Materials 2004; 13/2:107–20

In order to reduce depletion of natural aggregate due to construction, artificially manufactured aggregate and waste materials can be used as alternatives.
Fig. 1 GGBS Fig. 2 Recycled aggregate Experimental Program Materials used.
In present work materials used with their respective properties are given below.
and Jaylina Rana “Partial Replacement of Cement by Ground Granulated Blast furnace Slag In Concrete” Journal of Emerging Trends in Engineering and Applied Sciences (JETEAS) 5(5): 340-343,2014 [6] S.
Arivalagan “Sustainable Studies on Concrete with GGBS As a Replacement Material in Cement” Jordan Journal of Civil Engineering, Volume 8, No. 3, 2014 [7] Tarannum, Shruti, Rameshwari “Experimental Studies on Pozzolanic Action of GGBS and Strength Properties of GGBS Concrete” IJIRST –International Journal for Innovative Research in Science & Technology Volume 1 Issue 12,May 2015 [8] IS 456:2000 Plain and Reinforced Concrete-Code of Practice Bureau of Indian Standards,New Delhi,2000 [9] IS 10262:2009 “Concrete Mix Proportioning-Guidlines, Bureau of Indian Standards,New Delhi,2009 [10] Yogendra O.

Cannon et al: Mechanics of Materials Vol. 25 (1997), p. 291.
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Hongyang Jing, Lianyong Xu, Lixing Huo et al: Journal of Materials Science and Technology Vol. 20 (2004), p. 113.
Hongyang Jing, Lianyong Xu, Lixing Huo et al: Journal of Materials Science and Technology Vol. 21 (2005), p. 1.

The potential of CC became evident from the initial investigations and experiments with various materials and geometries.
With these cavities by forcing the material through a nozzle with a central mandrel, various materials may be co-extruded if the mandrel itself is hollow and works as a nozzle to deliver a second material.
Experiments with ceramics material show the versatility of the process relative to the use of a variety of fabrication materials.
[4] Behrokh Khoshnevis: Rapid Prototyping Journal, Vol.7 (2001), p.32
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Binder: Dental Materials, Vol. 23 (2007) No.7, p.785
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Callister: Fundamentals of Materials Science and Engineering (Chemical Industry Press, China 2004)
Meng: Journal of Materials Science Letter, Vol. 33 (1998) No.4, p.1023.

LM6 is the core material used in this research while natural fibre used as composite materials as well as to remain the hardness of the materials.
This both type of materials is non-metal materials compared to LM6 is aluminium alloy which is metal type.
Materials and Method Materials Selection.
Indian Foundry Journal.
G, Grozdanov A., Avella M., Gentile G., and Errico M., (2007) “Crystallization behavior of poly(hydroxybytyrate-co-valerate) in model and bulk PHBV/kenaf fiber composites,” Journal of Materials Science, vol. 42, no. 16, pp. 6501–6509,

Results and Discussion Raw Materials.
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Journal of Materials Science Letters. 1999;18:1595-7
Materials Letters. 2013;111:211-3

Characterization of Brittle Phase in Magnesium Based Materials Prepared by Powder Metallurgy Michaela Krystýnová1,a*, Pavel Doležal1,2,b, Stanislava Fintová1,3,c, Josef Zapletal2,d, Tomáš Marada2,e and Jaromír Wasserbauer1,f 1Materials Research Centre, Faculty of Chemistry, Brno University of Technology, Purkyňova 464/118, 612 00, Brno, Czech Republic 2Institute of Materials Science and Engineering, Faculty of Mechanical Engineering, Technická 2896/2, 616 69, Brno University of Technology, Brno, Czech Republic 3Institute of Physics of Materials Academy of Sciences of the Czech Republic, Žižkova 22, 616 62, Brno, Czech Republic axckrystynovam@fch.vut.cz, bdolezal@fme.vutbr.cz, cfintova@ipm.cz, dzapletal@fme.vutbr.cz, emarada@fme.vutbr.cz, gwasserbauer@fch.vut.cz Keywords: Powder metallurgy, magnesium, zinc, Laves phase, microhardness.
LO1211, Materials Research Centre and by Project No.
Vojtěch, Effect of sintering conditions on the microstructural and mechanical characteristics of porous magnesium materials prepared by powder metallurgy, Materials Science and Engineering, 35 (2014) 21-28
Hashmi, Comprehensive Materials Finishing, first ed., Elsevier, Ireland, 2016
Upadhyaya, Powder metallurgy technology, Cambridge, Cambridge International Science Pub, 1997

Recovery of precious metal material Ni from nickel containing wastewater using electrolysis Ruijie Jina, Changsheng Peng b,* , Ahmed Abou-Shadyc and Kedong Zhangd The Key Lab of Marine Environmental Science and Ecology, Ministry of Education, Ocean University of China, Qingdao, 266100, China aruijiejin@126.com, bcspeng@ouc.edu.cn, cshady_desert@yahoo.com, dmail4dong@gmail.com * Corresponding author.
Vidhyadevi and S.Sivanesan: Chemical Engineering Journal, Vol.167 (2011), p.122-131
[5] K.Dermentzis: Journal of Hazardous Materials, Vol.173 (2010), p.647-652
Abou-Shady: Journal of Hazardous Materials, Vol.189 (2011) , p.814-820
Palanivelu: E-Journal of Chemistry, Vol.7（2010）, p.1412-1420