Feasibility Investigation of Hydroforming of Dental Drill Body by FEM Simulation
الموضوعات :
Mohammad Sajjad Mahdieh
1
(Department of Mechanical Engineering, Shahid Chamran University of Ahvaz, Ahvaz, Iran)
Mohammad Reza Esteki
2
(Department of Mechanical Engineering, Foolad Institute of Technology, Isfahan, Iran)
الکلمات المفتاحية: FEM simulation, Abaqus Software, stainless steel, Tube Hydroforming Process,
ملخص المقالة :
Applying numerical methods in the analysis of forming processes, results in the prediction of the process parameters without performing costly and time-consuming laboratory test procedures. The purpose of this study is to evaluate the feasibility of manufacturing a dental drill body using a hydroforming process. Due to the hygienic issues, the selected material for this part is stainless steel grade 304. The main reason for applying stainless steel in the main body is its hygienic characteristics such as antibacterial surface and washability which makes it appropriate for use in many medical instruments. The hydroforming process is simulated in ABAQUS software and the required parameters of the initial material are obtained from engineering tables. The thickness of the initial part is 0.5 mm and after simulation, it is decreased to 0.38mm. The maximum Von Misses stress of the part reached in this simulation is 708 MPa and the maximum strain rate is 1.233 mm/mm.
[1] Glenner, R.A. 1974. Development of the dental drill. The Journal of the American Dental Association. 88(4): 712-727.
[2] Zhang, J., Cheng, P., Wang, F., Tang, W. and Zhao, X. 2022. Hydroforming and buckling of an egg-shaped shell based on a petal-shaped preform. Ocean Engineering. 250: 111057.
[3] Liu, W., Chen, Y.-Z., Hu, L. and Zhang, Z.-C. 2022. Deformation of large curved shells using double-sided pressure sheet hydroforming process. International Journal of Lightweight Materials and Manufacture. 5(3): 397-410.
[4] Lei, Q., Li, M., Ilinich, A., Luckey, G. and Misra, A. 2019. Microstructural evolution and failure mechanism of an extrusion welded aluminum alloy tube during hydroforming processing. Materials Science and Engineering: A. 756: 346-353.
[5] Cui, X.-L. and Yuan, S.-J. 2019. Effects of superimposed hydrostatic pressure on bulging deformation and fracture of tubes in double-sided hydroforming. Archives of Civil and Mechanical Engineering. 19(2): 569-583.
[6] Mahdieh, M.S., Rafati, E. and Kargar Sichani, S. 2013. Investigation of variance of roller burnishing parameters on surface quality by taguchi approach. ADMT Journal. 6(3): 1-6.
[6] Jain, N. and Wang, J. 2005. Plastic instability in dual-pressure tube-hydroforming process. International Journal of Mechanical Sciences. 47(12): 1827-1837.
[7] Saraeian, P., Gholami, M., Behagh, A., Behagh, O., Javadinejad, H.R. and Mahdieh, M. 2016. Influence of vibratory finishing process by incorporating abrasive ceramics and glassy materials on surface roughness of ck45 steel. ADMT Journal. 9(4): 1-6.
[8] Vakili Sohrforozani, A., Farahnakian, M., Mahdieh, M.S., Behagh, A.M. and Behagh, O. 2019. A study of abrasive media effect on deburring in barrel finishing process. Journal of Modern Processes in Manufacturing and Production. 8(3): 27-39.
[9] Vakili Sohrforozani, A., Farahnakian, M., Mahdieh, M.S., Behagh, A.M. and Behagh, O. 2020. Effects of abrasive media on surface roughness in barrel finishing process. ADMT Journal. 13(3): 75-82.
[10] Mahdieh, M.S. 2020. The surface integrity of ultra-fine grain steel, electrical discharge machined using iso-pulse and resistance–capacitance-type generator. Proceedings of the Institution of Mechanical Engineers, Part L: Journal of Materials: Design and Applications. 234(4): 564-573.
[11] Mahdieh, M.S. 2020. Recast layer and heat-affected zone structure of ultra-fined grained low-carbon steel machined by electrical discharge machining. Proceedings of the Institution of Mechanical Engineers, Part B: Journal of Engineering Manufacture. 234(5): 933-944.
[12] Mahdieh, M.S. and Mahdavinejad, R. 2016. Comparative study on electrical discharge machining of ultrafine-grain al, cu, and steel. Metallurgical and Materials Transactions A. 47(12): 6237-6247.
[13] Mahdieh, M.S. and Zare-Reisabadi, S. 2019. Effects of electro-discharge machining process on ultra-fined grain copper. Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science. 233(15): 5341-5349.
[14] Mahdieh, M.S. and Mahdavinejad, R.A. 2017. A study of stored energy in ultra-fined grained aluminum machined by electrical discharge machining. Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science. 231(23): 4470-4478.
[15] Mahdieh, M.S. and Mahdavinejad, R. 2018. Recast layer and micro-cracks in electrical discharge machining of ultra-fine-grained aluminum. Proceedings of the Institution of Mechanical Engineers, Part B: Journal of Engineering Manufacture. 232(3): 428-437.
[16] Jain, N. and Wang, J. 2005. Plastic instability in dual-pressure tube-hydroforming process. International Journal of Mechanical Sciences. 47(12): 1827-1837.
[17] Mapar, A., Bieler, T., Pourboghrat, F., Compton, C. and Murphy, J. 2015. Hydroforming of large grain niobium tube. 17th International Conference on RF Superconductivity.
[18] Raut, S.V., Ramesh, A., Arun, A. and Sumesh, C. 2021. Finite element analysis and optimization of tube hydroforming process. Materials Today: Proceedings. 46: 5008-5016.
[19] Ma, J., Yang, L., Huang, J., Chen, Z., He, Y. and Jiang, J. 2021. Residual contact pressure and elastic recovery of an assembled camshaft using tube hydroforming. CIRP Journal of Manufacturing Science and Technology. 32: 287-298.
[20] Zhang, Z., Kang, Y., Furushima, T., Manabe, K.-i., Wang, C. and Li, B. 2020. Deformation behaviour of metal micro tube during hydroforming process. Procedia Manufacturing. 50: 328-331.
[21] Jiao, Z.-h., Lang, L.-h. and Zhao, X.-n. 2021. 5a06-o aluminium–magnesium alloy sheet warm hydroforming and optimization of process parameters. Transactions of Nonferrous Metals Society of China. 31(10): 2939-2948.
[22] Zaheer, O., Ingarao, G., Di Lorenzo, R. and Fratini, L. 2021. On the effectiveness of spif process to re-form end-of-life components as compared to conventional forming approach. Key Engineering Materials. 883: 201-208.
[23] Han, S., Woo, Y., Hwang, T., Oh, I. and Moon, Y.H. 2019. Tailor layered tube hydroforming for fabricating tubular parts with dissimilar thickness. International Journal of Machine Tools and Manufacture. 138: 51-65.
[24] Novotny, S. and Geiger, M. 2003. Process design for hydroforming of lightweight metal sheets at elevated temperatures. Journal of Materials Processing Technology. 138(1-3): 594-599.
[25] Kocańda, A. and Sadłowska, H. 2008. Automotive component development by means of hydroforming. Archives of Civil and Mechanical Engineering. 8(3): 55-72.
[26] Ahmetoglu, M. and Altan, T. 2000. Tube hydroforming: State-of-the-art and future trends. Journal of Materials Processing Technology. 98(1): 25-33.
[27] Desu, R.K., Krishnamurthy, H.N., Balu, A., Gupta, A.K. and Singh, S.K. 2016. Mechanical properties of austenitic stainless steel 304l and 316l at elevated temperatures. Journal of Materials Research and Technology. 5(1): 13-20.
[28] Gheisary, M. and Djavanroodi, F. 2010. Experimental and numerical investigation of double bulge tube hydroforming. Modares Mechanical Engineering. 10(3): 1-9.
[29] Hwang, Y.-M. and Altan, T. 2003. Finite element analysis of tube hydroforming processes in a rectangular die. Finite Elements in Analysis and Design. 39(11): 1071-1082.
[30] Hwang, Y.-M. and Lin, Y.-K. 2002. Analysis and finite element simulation of the tube bulge hydroforming process. Journal of materials processing technology. 125: 821-825.
[31] Zadeh, H.K. and Mashhadi, M.M. 2006. Finite element simulation and experiment in tube hydroforming of unequal t shapes. Journal of Materials Processing Technology. 177(1-3): 684-687.
[32] Khorsandi, A. and Loh-Mousavi, M. 2010. Numerical investigations on the effect of pulsating pressure on improvement of formability in hydroforming of bent tube by fem. Journal of Simulation and Analysis of Novel Technologies in Mechanical Engineering. 3(1): 11-20.
[33] Choi, H.-H., Hwang, S.-M., Kang, Y., Kim, J. and Kang, B. 2002. Comparison of implicit and explicit finite-element methods for the hydroforming process of an automobile lower arm. The International Journal of Advanced Manufacturing Technology. 20(6): 407-413.
[34] Loh-Mousavi, M., Bakhshi-Jooybari, M., Mori, K., Farzin, M., Hosseinipour, J. 2010. Experimental study and numerical study of pulsating hydroforming of tube in box-shaped die. 21(1): 47-58.
[35] Mohammadalizade, F., Gorji, A., Bakhshi, M. and Elyasi, M. 2016. Reforming internal pressure and axial feeding loading paths in hydroforming process of cylindrical stepped tube in order to improve the thickness distribution. Amirkabir Journal of Mechanical Engineering. 48(4): 389-400.
