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Implementation of green packaging, reducing the consumption of packaging materials, focusing on the recovery of packaging materials, processing and reprocessing.
Give full play to the guiding role of commercial enterprises on production, encourage and increase their energy efficiency, energy-saving production process, saving raw materials and packaging goods publicity and marketing efforts.
Acknowledgement This research was financially supported by Hebei provincial science and technology Foundation (13273306), foundation of educational bureau (Z2012050).
References [1] Zhizhen Xiao: Journal of Hennan Business College, Vol. (2010)NO.5,p.15-17
[3] Xiaorong Xue, Chuanliang Zhen: Journal of Xi’an University of Finance and Economics, Vol. (2010)NO.6, p.102-105

Materials and methods Materials.
Shandong science, 2007,20: 54-57 In Chinese
Biological science experiments[M].
Journal of sichuan normal university, 2005 In Chinese
Journal of Thermal Biology, 2005, 30:524-531

Luo, Recent magnesium alloy development for automotive powertrain applications, Materials Science and Technology. 16(2003) 57-66
Segal, Materials processed by simple shear, Mater.
Alexandrov, Bulk nanostructured materials from severe plastic deformation, Prog.
Golovin, Improved mechanical property and internal friction of pure Mg processed by ECAP, Materials Science and Engineering A. 556(2012)588-594
Tsuji, Novel ultra high straining process for bulk materials development of the accumulative roll bonding process, ACTA Material. 47(1999) 579-583.

Currently, there are various existing raw materials such as vegetable oils and animal fats to produce promising alternative fuels via a transesterification process.
Materials and Methods Materials.
The mixing materials consist of methanol and n-Hexane, methyl heptadecanoate, methyl myristate, methyl palmitate, methyl stearate, methyl oleate, methyl linoleate.
All materials have been supported by various venders from Asia and Europe.
Özgür: Periodicals of Engineering and Natural Sciences Vol. 5(3) (2017), p. 378-386 [20] A.

Fajnor1,d 1University of Zilina, Faculty of Mechanical Engineering, Department of Materials Engineering, Univerzitna 1, 010 26 Zilina, Slovak Republic. 2Department of Mechanical Production Technology, College of Technological Studies, PAAET, P.O.
References [1] Military handbook material deterioration prevention and control, Guide of army material, part one, Metals (Mll Hdbk-735 (MR)), U.S.A.
Screiner: In situ studies of initial atmospheric corrosion of copper: Influence of humidity, sulfur dioxides, ozone and nitrogen dioxide, Journal of Electrochem Soc., Vol. 147, no. 7 (2000), pp. 2543-2551
Balasubramaniam: Microstructural characterization of copper corrosion in aqueous and soil environments, Materials Characterization, Vol. 55, no. 2 (2005), pp.127-135
Material Engineering, University of Zilina, Slovak Republic

Preparation of ZnO:Zr thin films by sputtering Zn:Zr targets Yuan Chang-kun School of Science, Shandong Univiersity of Technology, Zibo, Shandong, 255049, PR China Yuanck2012@126.com Keywords: ZnO:Zr films; DC reactive magnetron sputtering; film thickness Abstract.
For the same materials, the larger the refractive index, the higher the density of the film [4].
Acknowledgements This work was supported by Shandong Province Natural Science Foundation (ZR2009GQ011).
Liu, et al. , Journal of Vacuum Science and Technology 29(2009), p. 287

But in the mountainous area, wooden materials used for building the house are apt to catch fire.
References [1] Bangzhao Yao, "General Introduction to Huizhou," China Social Sciences Publishing House, 2000 (In Chinese) [2] Guotai Pan / Yongchun Zhu, "Anhui Ancient Architecture " Anhui Science and Technology Press, 1999 (In Chinese) [3] Zhengxiang Chen, " Huizhou, China. " life.
New Knowledge, Sanlian Bookstore Publishing House, 2000(In Chinese) [4] Mingju Wang / Mulin Wang, "Art of Huizhou Architecture", Anhui Science and Technology Press (In Chinese) [5] Yongfa Wu, "Research on the Aesthetics of Huizhou Residences", Journal of Hefei University of Technology, 2003 (In Chinese)

Fig. 8 Horizontal displacement history of node 7179 Acknowledgements We are grateful for the financial supports provided by the National Natural Science Foundation of China (No. 51079044), Special Fund for Scientific Research in the Public Interest of Ministry of Water Resources (No. 201001035), Priority Academic Program Development of Jiangsu Higher Education Institutions (PAPD), National "Twelfth Five-Year" Plan for Science & Technology Support(No.
SS2012AA112507), the 863 Projects task of Ministry of Science and Technology(No. 2012BAK10B04).Organization of the Text References [1] Ma Zhenyue, Dong Yuxin.
Applied Mechanics and Materials, 2013, 353-356: 2487-2491
Research Journal of Chemistry and Environment, Sep2013, 17: 73-81.

Determination of the Impact Fatigue Behavior of the Mo Surface Modified Ti6Al4V Alloy Xiuyan Li 1,a , Yongmei Li 2,b, Yanmei Qin 2,c, Bin Tang2,d, Zhong Xu 2,e 1 College of Science, Taiyuan University of Technology, Taiyuan 030024, PR China 2 Research Institute of Surface Engineering, Taiyuan University of Technology, Taiyuan 030024, PR China a lixiuyan@tyut.edu.cn, btblym@hotmail.com, c qinyanmei@tyut.edu.cn, d tangbin@tyut.edu.cn, ezhongxu@public.ty.sx.cn Keyword: plasma surface alloying technique; Ti6Al4V alloy; Mo; impact fatigue behavior Abstract.
Introduction Titanium alloys are often material of choice for aerospace, chemical and biomedical industries, because of their unusual corrosion resistance, high mechanical strength and low density.
The spread of the radial cracks lead to a continuous removal of small Mo alloying layer fragments and thus to the gradual exposure of the substrate material.
Fig. 5: Impact cracks of the Mo alloying layer at impact loads of 400N (a) and 500N(b) Acknowledgement The project sponsored by National Natural Science Foundation of China (50371060), Natural Science Foundation of Shanxi (20021002) and Scientific Foundation for Returned Overseas Scholars of Shanxi (2003-27).
Xu: The Chinese Journal of Nonferrous Metals Vol. 13 (2003), p. 319

Research on Mechanical Properties of Modified Organic Montmorillonite Reinforced Nature Rubber(NR) Composites Xiaoyu Zheng a, Jincheng Wang b, Ke Yang c College of Chemistry and Chemical Engineering, Shanghai University of Engineering Science, Shanghai 201620, P.R.China.
Natural rubber/montmorillonite(NR/MMT) nanocomposite is a new kind of material on which researchers have made a lot of studies in recent years [3,4].
Rubber nanocomposites containing a small amount of MMT showed excellent overall performance compared with the general material.
Acknowledgements This work was financially supported by “Shanghai Nano-project Funds (Project No. (0952nm02600), “National Natural Science Funds (Project No.50803034)” and “Shanghai Universities Knowledge Innovation Engineering Project (Project JZ0904)” and “Shanghai Shuguang Project (Project 10SG53).
Luo, et al: Journal of Applied Polymer Science, Vol 3(2006), p. 1905