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The earth's ecological structure is changing because of human materials request.
Acknowledgements This work was financially supported by the National Natural Science Foundation of China (Grant No.51208429) and the Fundamental Research Fund for the Central Universities (Grant No.
References [1] L.L.Jia, J.Qiu: Journal of Landscape Research.
Sichuan Science and Technology Press.1989 [3] Y.
Lin: Journal of Tongji University (Social Science Section).Vol.2 (2003), p.1-5

In the process of production, long-time and high-temperature environment will lead to the increase of internal stress in the chip, which will increase the fragmentation rate of ultra-thick epitaxial materials in the later process.
Materials Science Forum. 457-460, (2004) 565
Klein, Identification of Defects Limiting the Carrier Lifetime in n-Epitaxial Layers of 4H-SiC, Materials Science Forum Vols. 645-648 (2010) pp 193-198
[8] Naoki Kaji, Hiroki Niwa, Jun Suda and Tsunenobu Kimoto，Ultrahigh-Voltage (> 20 kV) SiC PiN Diodes with a Space-Modulated JTE and Lifetime Enhancement Process via Thermal Oxidation, Materials Science Forum. 778-780, (2014)832-835
Palmour, Improvement of Minority Carrier Lifetime in Thick 4H-SiC Epi-layers by Multiple Thermal Oxidations and Anneals , Materials Research Society 1538 (2013)329-333

Overall revolution and twist of the FBG with core material.
is central plane of the bent core material.
Acknowledgements This research is joint sponsored by National Science Foundation under the Grant No 50475182 and Innovation Gourp Project for Shanghai Municipal Education Commission.
Journal of Applied Sciences, 2003, 21 (3):258-262 [10] LIU Gang; KE Ying-lin.
Journal of Zhejiang University(Engineering Science), 2004, 38 (6):687-690(In Chinese)

Experimental procedure Materials for plasma spray.
Acknowledgement This work is financially supported by National Science and Technology Major Project under grant 2008ZX02101-3.
Aoki: Materials Transactions Vol. 47 (2006), p. 1677 [2] X.
Herman: Mterials science & engineering.
Boncoeur: Journal of Materials Science Vol. 29 (1994), p. 6434 [7] K.

Texture Evolution in Rolled Mg-13wt%Li-X Alloy Li Li1a, Tietao Zhou 1b, Huanxi Li 1c, Changqi Chen 1, Qiulin Wu 2, Qingquan Zhang 2 1 School of Materials Science and Engineering, Beijing University Aeronautics & Astronautics, Beijing 100083, China 2 Shougang Metallurgical Research Institute, Beijing 100085, China a lily@mse.buaa.edu.cn b zhoutt@buaa.edu.cn c lhx201@buaa.edu.cn Keywords: Magnesium-lithium Alloy, Plastic Deformation, Texture Evolution Abstract.
Material and Experimental Procedures The material used is 1.35 mm thickness Mg-13wt%Li-X alloy sheet developed in our laboratory.
Froes: Magnesium 2000/proceeding of 2nd Israeli international conference on magnesium science & amp technology (2000), p.22 [2] R.L.
Engler: Materials Science and Engineering A.
Tzhou: Internaional Journal of Mechanical Sciences.

In this experiment, peanuts and mango as raw materials, developed a nutrient-rich, stable state of the organization of peanut mango milk.
Materials and methods Materials.
Journal of Henan University of Technology(Natural Science Edition),2007,28(6):73-75
[7] Q.YU, Q.Z.ZHAO M.M.ZHAO et al.Efects of Ratio and Dosage of Emulsifiers 0n Stability of Peanut Milk[J].Modern Food Science and Technolog,2009,25(8):903-906
Modern Food Science and Technology,2008,24(6):517-520.

Materials and Methods Mandarin Orange Samples.
References [1] C.Jaren, J.C.Ortuno: International Journal of Infrared and Millimeter Waves.
[5] J.Li , L.Xue, M.H.Liu: Advanced Materials Research. (2011), p.126-130
[7] J.Li , L.Xue, M.H.Liu: Advanced Materials Research.(2011): 121-125
[9] J.R.Cai, M.J.Tang: Food And Science.

Tailoring dynamic recrystallization in Ni- and Fe-base high temperature alloys Pedro Rivera-Diaz-del-Castillo1,a , Enrique Galindo-Nava1,2,b 1Department of Materials Science and Metallurgy, University of Cambridge, United Kingdom 2Department of Materials Science and Engineering, Delft University of Technology, Netherlands apejr2@cam.ac.uk, beg375@cam.ac.uk Keywords: Dynamic recrystallization; dislocation theory; plasticity; hot deformation; statistical thermodynamics.
The energy barrier to ignite grain growth is expressed as a function of the strain energy stored in the material and a statistical entropy contribution due to the degrees of freedom available to a dislocation for annihilation.
Rivera-Diaz-del-Castillo: Materials Science and Technology.
Rivera-Diaz-del-Castillo: submitted to International Journal of Plasticity

Fig.1 Three-dimensional calculation model Fig.2 The center section of model 2.2 Boundary conditions setting The boundary conditions of the cube and underside hypothesis is the fixed boundary, and the upper surface of the cube (surface of soil) hypothesis is the free boundary. 2.3 Constitutive model and parameters selecting 1) The constitutive model of soil Due to the soil materials for granular materials, the stress-strain characteristics is very difficult to use elastic constitutive model to describe, the Mohr-Coulomb constitutive model is used in order to be more realistic. 2) The initial expansion of hole radius determined In order to avoid the circumferential strain of infinite phenomenon which was caused by the initial radius is zero.
Tab.1 The material parameters of soil Soil name E（MPa） （°） c（kPa） Cu（kPa） μ Soft clay 3 10 10 14 0.45 K and G is two elastic constants, and it is commonly used to describe the material properties instead of elastic modulus E and Poisson’s ratio in FLAC3D.
Weak soil compaction effect of pile design and test [J], Sichuan Building Science, 2011, Vol. 37(5):103-106
Growth of Pile Bearing Capacity over Time Considering the Dissipating of Excess Pore Pressure [J], Journal of Engineering Geology, 2012,20(5):815-820
[16] ZHAO Ming-hua, ZHAN Xin-jie, ZOU Xin-jun, Numerical Simulation of Pile Installation and Subsequent Consolidation in Clay[J], Journal of Hunan University (Natural Sciences), 2013,40(2):1-8

Materials and Methods Dielectric Material.
Key Engineering Materials 655(2015):132-135
Key Engineering Materials 697(2016):227-230
Key Engineering Materials 562-565(2013):33-38
Key Engineering Materials 697 (2016): 231.