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Materials Science Forum Vols. *** (2004) pp.453-456 online at http://scientific.net  2004 Trans Tech Publications, Switzerland Study on Technology of Flexible Forming of Sheet Metal Based on Laser Shock Waves Y.K.
Zhou 1,b, D.W.Zuo 2,c , J.C.Yang 1,d and L.Cai1,d 1 School of Mechanical Engineering, Jiangsu University , Zhenjiang, 212013, China 2 College of Mechanical and Electronic Engineering, Nanjing University of Aeronautics and Astronautics, Nanjing,210016,China a ykzhang@ujs.edu.cn, bzhoujz@ujs.edu.cn, cdzuo@jlonline.com, d laser@ujs.edu.cn Keywords: Sheet metal, Laser shocking, Flexible forming Abstract.
For this reason, the flexible forming process may be suitable for producing prototype or small batch sheet type components in the engineering economically [1-3].
The mechanism of laser Advances in Materials Manufacturing Science and Technology 454 shock forming is shown as in Fig.1.
Meanwhile, a database consisting of sheet deformation as function of laser parameters and restricting boundary must be established through experimental, so Advances in Materials Manufacturing Science and Technology 456 as to program the controlling software of laser shocking tracks and to improve the forming efficiency and precision.

., Chongqing Institute of Technology, Chongqing 400050, China 2 College of Material Science and Engineering, Chongqing University, Chongqing 400044, China a mayanlong@cqit.edu.cn , bfspan@cqu.edu.cn , czuorl@sohu.com, d zhangjin@cqit.edu.cn, eyangmingbo@cqit.edu.cn Keywords: magnesium alloy; ZK60; Solution treatment; aging treatment; eutectic Abstract.
[3]Chang G.C., Zhang J.Z.: Crystal creation and controls in the process of metals solidification process (The metallurgy industry publisher, Beijing 2001) [4]Pan F.S., Wang W.M. et al.: Material Science Forum Vols.448-489(2005) p. 181 [5]Ma Y.L., Pan F.S., et al.: Material Science Forum Vols.448-489(2005) p. 245 [6]Ding P.D., Pan F.S., et al.: UK-China Advanced Materials Symposium, 2005, p. 96
[7]Peng J., Zhang D.F., et al.: Materials Engineering (in Chinese), 2004, 8:32-53
[15]Li J.C., et al.: Engineering Materials (in Chinese), 1994, 12:15-17.

Higashi1, d 1 Graduate School of Engineering, Osaka Prefecture University, Sakai-shi, 599-8531, Japan 2 Graduate Student, Osaka Prefecture University, (present address: TOSTEM Corporation) 3 Technology Licensing Organization of Osaka Prefecture, Higashi-Osaka, 577-0011, Japan 4 School of Science and Engineering, Kinki University, Higashi-Osaka, 577-8502, Japan 5 Yanami Co.
Forum, 419 (2003), p1037
Sympo. on Joining Technology in Advanced Automobile Assembly 2005 (Japan Welding Society, 2005), p 211
Kral: Materials Science and Engineering A-Structural Materials Properties Microstructure and Processing, 371-A (2004), p371 [14] J.
Lee: Materials Science Forum, 419 (2003), p165 [15] N.

Using Meister Abrasives’ solutions, grinding process engineers can produce wafers with a TTV below 1 µm while keeping the grinding forces very low and steady.
Balkas, Materials Science Forum 858 (2016) 5–10
Chen, The International Journal of Advanced Manufacturing Technology 89 (2017) 619–627
Xipeng, The International Journal of Advanced Manufacturing Technology 108 (2020) 997–1006
Watanabe, in Proceedings of the 12th International Symposium on Advances in Abrasive Technology, edited by Advanced Materials Research (Trans Tech Publications), 2009, pp. 282–287.

Design of a Ducted Cross Flow Turbine for Fiji Jai Nendran Goundar1, a, Niranjwan Chettiar2, b, Sumesh Narayan1, c, Ashneel Deo 1, d and Deepak Prasad1, e 1Section of Mechanical Engineering, The University of the South Pacific, Laucala Campus, Suva, Fiji. 2 Department of properties and facilities, The University of the South Pacific Laucala Campus, Suva, Fiji.
Ducted cross turbine, is made of very simple components therefore can be easily manufactured without using advanced manufacturing assembly line, therefore, it has lower maintenance cost, compared for HAMCT.
Albertson: Experimental Studey of Cross-Flow Turbine, Journal of Hydraulic Engineering, Vol.114, (1988), pp. 299-314
Akerkar; Power Outputs of Two stages of Cross-Flow Turbine Efficiency, Journal of Energy Engineering, Vol.117, (1991) , pp. 57-70
Desai and N.M Aziz: An Experimental Investigation of Cross Turbine Efficiency, Journal of Fluids Engineering, Vol.116, (1944), pp. 545-550

Preface Those volumes contain papers contributed to The Second International Conference on Advances in Materials and Manufacturing (ICAMMP 2011) held on 16-18 December 2011 in Guilin, China.
The International Conference on Advances in Materials and Manufacturing Processes is the premier forum for the presentation of new advances and research results in the fields of materials and manufacturing processes.
This conference series will bring together leading researchers, engineers and scientists in the materials and processes field of interest from around the world.
The First International Conference on Advances in Materials and Manufacturing Processes (ICAMMP 2010) was successfully held from November 6-8, 2010 in Shenzhen, China.
All papers published in those volumes of journal of Advanced Materials Research have been peer reviewed through processes administered by the organizing committee.

Tenaglia, Surface Engineering, 18 (2002) 32-36
Chengye, Materials Science and Engineering A, 257 (1998) 215-365
Lieurade, Materials Science and Engineering A, 210 (1996) 102-113
Conf. on Advanced Technology in Experimental Mechanics 2003 (ATEM'03) Nagoya, Japan (2003)
Saka, Materials Science and Engineering A, 387-389 (2004) 837-839

Ebert, Magnesium: Properties – applications – potential, Materials Science and Engineering A 302 (2001) 37-45
Mohd Halim, Murtadhahadi, A review of workability of wrought magnesium alloys, Advanced Manufacturing Research Group’09 Seminar 3 (2009)
Reed, Superplastic behaviour of AZ91 magnesium alloy processed by high pressure torsion, Materials Science and Engineering A 637 (2015) 1-11
Mabuchi, Superplasticity and grain boundary sliding in rolled AZ91 magnesium alloy at high strain rates, Materials Science and Engineering A 360 (2003) 107-115
Kim, Microstructural instability and strength of an AZ31 Mg alloy after severe plastic deformation, Materials Science and Engineering A 385 (2004) 300-308

Numerical Simulation Software of Casting Process used for Computer Aided Instruction Jianmin Zeng1,a, Jie Liang1,b, Zhiliu Hu1,c, Ping Chen2,d and Lihua Liang2,e 1Dept. of materials science and engineering, Guangxi University, China 2Alnan aluminum, Nanning, Guangxi, China azjmg2004@163.com, bliangjie001@126.com, chuzhiliu2682@163.com Keywords: Numerical simulation; Computer aided instruction; solidification; casting process Abstract.
Simulation software is an essential tool for today‘s engineers.
The temperatures and solidification zone advancing within the casting can be displayed graphically.
Advancing cooling process and cooling gradients at selected points. e.
Hamouda: Journal of Materials ProcessingTechnology, Vol. 178 (2006), p. 29–33 [2] Information on http://www.magmasoft.com [3] Information on http://www.finitesolutions.com [4] Information on http:// www.castech.fi [5] Information on http:// www.flow3d.com [6] Information on http://www.rwp-simtec.de [7] J.M Zeng and Y.H Zhou: Materials Science Forum, Vol. 686 (2011) p.765-769 [8] J.M Zeng and H.

Zhang 3,c 1 School of Mechanical and Electric Engineering, Zhongyuan University of technology 2 School of Electric and Information Engineering, Zhongyuan University of technology 3 College of Information & Business, Zhongyuan University of technology ZhengZhou, P.R.
Li: Materials Science & Engineering A, Vols.499 (1) (2008), pp.248-251
Fan.: Materials Science & Engineering A, Vols. 499 (1) (2008), pp.200-203
Ding: Materials Science Forum, Vols.575-578 (2009), pp.316-321
Zhang: Materials Science Forum, Vols. 628-629 (2009), pp.541-546.