Selection of material model of chosen photocurable resin for application in finite element analyses
Danuta Miedzińska
Wojskowa Akademia TechnicznaAbstract
In the paper, a literature study of a modelling methods of a photocurable materials developed by additive techniques is presented. The main aim was to assess which material model is appropriate for such kinds of matter. The Finite Element Method and the LS Dyna software was assumed as a possible environment for the investigations. The material models that can be apply for photopolymers analysing were described as well as examples of such materials. The conclusions is that the material model selection must be based on the observation of the material behaviour and the possible loading conditions (e.g. strain rate).
Keywords:
stereolitography, finite element method, mechanical behaviour, constitutive materialSupporting Agencies
References
Ajoku U., Hopkinson N., Caine M. 2006. Experimental measurement and finite element modelling of the compressive properties of laser sintered Nylon-12. Materials Science Engineering A, 428: 211–216. Google Scholar
Boyce M.C., Socrate S., Llana P.G. 2000. Constitutive model for the finite deformation stress–strain behavior of poly(ethylene terephthalate) above the glass transition. Polymer, 41(6): 2183-2201. Google Scholar
Dizon J.R.C., Espera A.H. Jr., Chen Q., Advincula R.C. 2018. Mechanical characterization of 3D-printed polymers. Additive Manufacturing, 20: 44-67. Google Scholar
Eisele U. 1990. Introduction to Polymer Physics. Springer-Verlag, Berlin. Google Scholar
Hallquist J. 2007. LS Dyna Keyword User’s Manual, version 971. Livermore Software Technology Corporation, Livermore. Google Scholar
LS-Dyna Keyword User’s Manual. 2012. Vol. 2. Material Models. Version 971 R6.1.0. Livermore Software Technology Corporation, Livermore. Google Scholar
Materials Data Sheet: Photopolymer Resin for, Form 1+ and Form 2. 2018. Formlabs. www.formlabs.com, https://archive-media.formlabs.com/upload/XL-DataSheet.pdf (access: 12.12.2020). Google Scholar
Miedzińska D., Gieleta R., Małek E. 2020. Experimental study of strength properties of SLA resins under low and high strain rates. Mechanics of Materials, 141: 103245. Google Scholar
Miedzińska D., Małek E., Popławski A. 2019. Numerical modelling of resins used in stereolitography rapid prototyping. Applied Computer Science, 15(4): 16-26. Google Scholar
Rodriguez J., Thomas J., Renaud J. 2003. Mechanical behavior of acrylo itrile butadiene styrene fused deposition materials modeling. Rapid Prototyping Journal, 9(4): 219-228. Google Scholar
Sugavaneswaran M., Arumaikkannu G. 2015. Analytical and experimental investigation on elastic modulus of reinforced additive manufactured structure. Materials Design, 66: 29–36. Google Scholar
The Ultimate Guide to Stereolithography (SLA) 3D printing. 2020. Formlabs. www.formlabs.com, https://archive-media.formlabs.com/upload/SLA_Guide.pdf (access: 11.12.2020). Google Scholar
Vaezi M., Seitz H., Yang S. 2013. A review on 3D micro-additive manufacturing technologies. International Journal of Advanced Manufacturing Technologies, 67: 1721-1754. Google Scholar
Wu J. 2018. Constitutive modelling of photopolymerization and its application to 3D printing. Dissertation Presented to The Academic Faculty, Georgia Institute of Technology. Google Scholar
Zarbakhsh J., Iravani A., Amin-Akhlaghi Z. 2015. Sub-modeling finite element analysis of 3D printed structures. Proceedings of 16th International Conference on Thermal, Mechanical and Multi-Physics Simulation and Experiments in Microelectronics and Microsystems, Budapest. Google Scholar
Wojskowa Akademia Techniczna