The Research Progress of Nitinol Vascular Stent

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Abstract:

Nitinol alloy is used widely in biomedical science because of their good performances. The radial support force, biocompatibility and fatigue performance of nitinol alloy blood stent meet the requirement correctly. With the development of computer simulation technology, the stent structure, materials and so on will get further improvement and innovation under the help of statuses on the finite element analysis and blood flow dynamics simulation of nitinol alloy stent.

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Periodical:

Advanced Materials Research (Volumes 690-693)

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425-428

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May 2013

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© 2013 Trans Tech Publications Ltd. All Rights Reserved

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[1] Balko A,Piaseki GJ,Shawn DM,et al.Transfemoral placement of intraluminal polyurethane prosthesis for abdominal aortic aneurysm[J].J Surg Res,1986,40:305—309.

Google Scholar

[2] Y.F. Zheng, L.C,Zhao. Biomedical Materials [M] Beijing: Science Press, (2004)

Google Scholar

[3] Y.Y, Xiao,J.S, Zhang. Preparation and Properties of biodegradable intravascular stent [J]. Chinese Journal of Radiology, 2003,11 (37) :1036-1042

Google Scholar

[4] Roy Chow, Mongolian Red Cloud, Tseng Chang Chun.The technology and performance of endovascular stent [J]. Journal of Biomedical Engineering, 2007, 24 (6) :1423-1427

Google Scholar

[5] J.G,Luo, E.H,Xiao.Thoracic aortic dissection endovascular stent treatment [J] Clinical Radiology, 2006,25 (11) :1046-1050

Google Scholar

[6] W,Guo,L.Y,Gai. Endovascular repair of aortic dissection in 178 cases of early postoperative efficacy [J]. Journal of Surgery, 2005,43:921

Google Scholar

[7] L.S. Castleman.Biocompatibility of Nitinol Alloy as an Implant Material[J],Biomed. Mater. Res.1976,10(5):690-695

Google Scholar

[8] M,Xue, Z.X,Chen. The preliminary report of nitinol experimental analysis of trace elements after implantation in animals[R]. The shape memory alloy academic conference proceedings(2). Wuxi, (1985)

Google Scholar

[9] W.D. Miu, M. Zhu. NiTi alloy electrolytic polishing mechanism research [J]. Metal journal,2002,38:630 -632

Google Scholar

[10] D.Tolomeo,S.Davidson and M.Santinoranont. Cyclic properties of superelastic nitinol:design implications.Proceedings of the first international conference on shape memory and superelastic technologies.2000.California:471-476

Google Scholar

[11] W.J. Wang. Coronary artery stents mechanical behavior finite element analysis and structure optimization [D].Dalian: Dalian university of technology, (2005)

Google Scholar

[12] Q. Liu, L.P. Lei,etc. Stents radial supporting capacity of numerical simulation and experimental study [J]. Chinese journal of medical devices, 2010, 34 (3) : 175-179

Google Scholar

[13] Z.X. Zhao, D.Z. Liu, etc. The finite element analysis and fatigue test of nitinol alloy stent [J]. Chinese journal of medical devices, 2008, (5) : 373-376

Google Scholar

[14] J.W. Zhao, W.Y. Yan. Two dimensional elastic aneurysm model hemodynamic numerical simulation and analysis [J].Biomedical Engineering Journal, 2007, 26:730-738

Google Scholar

[15] Stuhne GR and Steinman DA. Finite—Element Modeling of the Hemodyna-mics of stented Aneurysms.Journal of Biomechanical Engineering,2004,126:382-390

Google Scholar