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The other thing is the advanced technology which is an important feature in the development and utilization of renewable energy.
Obama’s government plans to invest $15 billion a year over the next 10 years to develop wind power, solar power, advanced biofuels, clean energy.
They are mainly used for Beijing’s important engineering and projects of renewable energy, key industry projects of renewable energy, and the capital input in small and medium-sized enterprises of renewable energy and the construction of rural energy.
References [1] Jing Gao: Forum of World Economics & Politics, Vol. 6 (2009), p. 58-61

New Insights into the Occurrence of Prismatic Slip During PVT Growth of SiC Crystals Shanshan Hu1,a*, Balaji Raghothamachar1,b, Zeyu Chen1,c, Kevin Kayang1,d, Dilip Gersappe1,e, Michael Dudley1,f, Victor Torres2,g, Douglas Dukes2,h, Diana Lang2,i, Andy Martin2,j, Hunter Briccetti2,k, Samantha Griswold2,l, Thomas Kegg2,m and Nicholas Griffin2,n 1Department of Materials Science & Chemical Engineering, Stony Brook University, Stony Brook, NY 11794, USA 2Pallidus, Inc., Albany, NY 12203, USA ashanshan.hu@stonybrook.edu, bbalaji.raghothamachar@stonybrook.edu, czeyu.chen@stonybrook.edu, dkevin.kayang@stonybrook.edu, edilip.gersappe@stonybrook.edu, fmichael.dudley@stonybrook.edu, gvictor.torres@pallidus.com, hdouglas.dukes@pallidus.com, idiana.lang@pallidus.com, jandy.martin@pallidus.com, khunter.briccetti@pallidus.com, lsam.griswold@pallidus.com, mtom.kegg@pallidus.com, nnicholas.griffin@pallidus.com Keywords: X-ray topography, 4H-SiC, PVT growth, prismatic slip Abstract.
This research used resources of the Advanced Photon Source (Beamline 1-BM), a U.S.
The Joint Photon Sciences Institute at SBU provided partial support for travel and subsistence for access to Advanced Photon Source.
Loboda, Basal plane dislocation multiplication via the hopping frank-read source mechanism and observations of prismatic glide in 4H-SiC, Mater Sci Forum 717 (2012) 327-330

The inspection robots will be able to estimate the damage condition without any process of engineers’ on-site-inspection involved.
Several reason for this fact are : (1) It is not very easy for engineers to access the ceiling because of its altitude; (2) certain stage is needed to be constructed to inspect the damage; (3) The connections of ceiling components are inside of ceiling and covered by ceiling boards.
The inspection robots will be able to estimate the damage condition without any process of engineers’ on-site-inspection involved [8 - 15].
Kimura, K.Makabe, F.Matsuno , S.Tadakoro and K.Kon, Use of Remotely Operated Marine Vehicles at Minamisanriku and Rikuzentakata Japan for Disaster Recovery, Proc. of the 2011 IEEE International Symposium on Safety, Security and Rescue Robotics, 19-25 (2011) [9] D.R.Huston, J.Miller and B.Esser, Adaptive, Robotic, and Mobile Sensor Systems for Structural Assessment, Proc. of SPIE 5391, CD-ROM (2004) [10] T.Harada, and K.Yokoyama, Development of bridge inspection system by using wireless network technologies, Proc. of the 4th International Workshop on Advanced Smart Materials and Smart Structures Technology, 221-226 (2008) [11] D.Mascarenas, E.Flynn, M.Todd, G.Park, and C.Farrar, Wireless sensor technologies for monitoring civil structures, Sound and Vibration, 42(4), 16-20 (2008) [12] S.G.Taylor, K.M.Farinholt, E.B.Flynn, E.Figueiredo, D.L.Mascarenas, E.A.Moro, G.Park, M.D.Todd, and C.R.Farrar, A mobile-agent Based Wireless Using Sensing Network for Structural Health Monitoring Application
, Materials Forum,33, 1-13 (2009) [13] D.Zhu, Q.Qi , Y.Wang,J-M.

ECAP processing is an attractive procedure for many advanced structural and functional applications as it allows enhancing significantly properties of commonly used metals and alloys.
Figure 3 shows typical examples of the engineering stress–strain curves of static peak-aging and preaging-ECAPed samples and all the mechanical data are listed in Table 3.
Fig. 3 (Color online) Engineering stress–strain curves of the static peak-aging and preaged ECAP conditions.
Forum. 817 (2015) 627-633
Forum. 745-746 (2013) 303-308

Mosler, Mechanical characterization and constitutive modeling of Mg alloy sheets, Materials Science and Engineering A 540 (2012) 174–186
Mosler, Experimental and numerical investigation of Mg alloy sheet formability, Materials Science and Engineering A 586 (2013) 204–214
Mabuchi, Stretch formability of AZ31 Mg alloy sheets at different testing temperatures, Materials Science and Engineering A 466 (2007) 90–95
Wagoner, Evolution of the deformation texture and yield locus shape in an AZ31 Mg alloy sheet under uniaxial loading, Materials Science and Engineering A 526 (2009) 38–49
Hußnätter, Modeling the material behavior of magnesium alloy AZ31 using different yield criteria, The International Journal of Advanced Manufacturing Technology 44 (2009) 969–976

Introduction In recent, several industries like manufacturing, and in engineering the enhancement of heat transfer performance is an essential topic.
Now a day, many researchers have been conducted their work on squeezing flows using the advanced numerical methods [17].
Mishra, Thermal energy transport on MHD nanofluid flow over a stretching surface: A comparative study, Engineering Science and Technology, an International Journal, 21(1)(2018)60-69
Sandeep, Magnetohydrodynamic Cattaneo-Christov flow past a cone and a wedge with variable heat source/sink, Alexandria Engineering Journal, 57(1)(2018)435-443
Mozaffari, Heat transfer analysis of unsteady grapheme oxide nanofluid flow using a fuzzy idenfier evolved by genetically encoded mutable smart bee algorithm, Engineering Science and Technology, an International Journal, 18(2015)106-123.

Westwood, “Recent progress in offshore renewable energy technology development,” IEEE on Power Engineering Society General Meeting, Vol. 2, June (2005), pp. 2017-2022
Leijon, “Matching a permanent magnet synchronous generator to a fixed pitch vertical axis turbine for marine current energy conversion,＂{TTP}-254 IEEE Journal of Oceanic Engineering, Vol. 34, No. 1, Jane (2009), pp. 24-31
Taguchi, “Using Taguchi methods in quality engineering,” Quality Progress, pp. 55-59, (1990)
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Mishing, in: Diffusion Processes in Advanced Technological Materials, edtied by D.

., Advances in Solid Oxide Fuel Cells: Ceramic Engineering and Science Proceedings 26 (2008) 4
Callister, Material Science and Engineering: An Introduction.
Lu, Glass-based seals for solid oxide fuel and electrolyzer cells – A review, Materials Science and Engineering: R: Reports, vol. 67, no. 5–6, pp. 65–85, Feb. 2010
Petrás, Quantitative Phase Analysis: Rietveld Method Versus Full-Pattern Method with Whole Observed Standard Profiles, Materials Science Forum. 321–324 (2000) 54–59
Cool, Heavy Mineral Analysis of Sandstones by Rietveld Analysis, International Centre of Diffraction Data 2003, Advance in X-Ray Analysis, vol. 46, pp. 198–203, 2003

The Application of xPC Target Platform for a Circular Plate Vibration Control SIERŻĘGA Mariusz1, a, LENIOWSKA Lucyna1,b 1Department of Mechatronics and Control Engineering, University of Rzeszów, Poland aurmariusz@gmail.com, blleniow@ur.edu.pl Keywords: circular plate, vibration control, xPC Target, MFC elements, off-line identification.
However, if controller model has been designed, it still has to be realized and connected to the actual plant, and most of the actual control system engineering effort is devoted to taking the controller model to such a realization.
Leniowska, Real-time implementation of advanced control algorithm for circular plate vibration cancellation, Proceedings of Forum Acousticum, Cracow, 2014r, ISSN 2221-3767
Sierżęga: Active noise and vibration control of circular plate with the use of MFC elements, Advances of acoustics, University of Rzeszow Publishing House, Rzeszow 2013 (in Polish), ISBN 83-914391-0-9 [5] MathWorks System Identification Toolboks documentation [6] Z.
Balemi, Rapid controller prototyping with Matlab/Simulink and Linux, Control Engineering Practice 14 (2015), p. 185-192 [9] Politec PSV-400-3D Scanning Vibrometer documentation [10] J.

., 20-1, Shintomi, Futtsu, Chiba, 293-8511, Japan 2 Department of Material Science and Engineering, Kyushu University, 744 Motooka, Nishi-ku, Fukuoka, 819-0395, Japan, now in Nippon Steel & Sumitomo Metal Corp. 3 Department of Material Science and Engineering, Kyushu University, 744 Motooka, Nishi-ku, Fukuoka, 819-0395, Japan aushioda.cd8.kohsaku@jp.nssmc.com, bnakanishi.Sae@nsc.co.jp, cmorikawa@zaiko.kyushu-u.ac.jp, dhigasida@zaiko.kyushu-u.ac.jp, esuwa.fm2.yoshihiro@jp.nssmc.com, fmurakami.4fz.kenichi@jp.nssmc.com Keywords: steel, deformation structure, heterogeneity, grain boundary, shear band, recrystallization, phase field simulation Abstract.
In the present paper, the progress of our understanding about the heterogeneity of the deformation structures is presented by exploiting advanced analytical techniques such as electron back scattering diffraction (EBSD), focusing on the vicinity of grain boundaries and shear bands.
In addition, a recent study using phase-field simulation is presented as an example of the advances in computational science to simulate recrystallization behaviors and texture evolution.
Ushioda: Materials Science Forum, 715-716(2012), 158 [17] S.