Melih Cemal KUŞHAN, Özgür POYRAZ, Yağız UZUNONAT, Sezan ORAK

SYSTEMATICAL REVIEW ON THE NUMERICAL SIMULATIONS OF LASER POWDER BED ADDITIVE MANUFACTURING

Additive manufacturing technologies, depending on melting of metal powder particles layer upon layer for building 3D functional objects, have widened their application area within biomedical, automotive, aerospace and die/mold industries. Along with the increased application of additive manufacturing, a better understanding of different aspects for the technique has become necessary to fulfill the high demands of quality and productivity. One of the significant process limits of additive manufacturing technologies are residual stresses induced by heating the fine metal powder to the melting point and sudden cooling to the initial temperature. Process simulations performed in a computer environment is of critical importance to predict and to prevent this risk. This paper represents a systematical literature review on the numerical simulations of laser powder bed fusion additive manufacturing. It covers the background and development of analytical models with the contributions of previous ones used for traditional manufacturing techniques such as welding. The details of the numerical modeling studies are provided for thermal and mechanical analysis with the arrangements and assumptions made to reduce the simulation times. Application features are also referred like part material, part size, validation case and the software used for simulations. As a result of these, gap analysis are conducted, needs are established and future research opportunities are expressed.

Keywords:

Additive manufacturing, Finite element analysis, Laser powder bed fusion, Thermo mechanical simulations.,

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⦁ ASTM F2792-12a, (2012) Standard Terminology for Additive Manufacturing Technologies, ASTM International, West Conshohocken, PA, ⦁ www.astm.org.
⦁ Wohlers, T., (2014) Wohlers report, Wohlers Associates Inc.
⦁ Stucker, B., Gibson, I., and Rosen, D., (2010) Additive Manufacturing Technologies, Springer.
⦁ Kruth, J.P., Wang, X., Laoui, T., and Froyen, L., (2003) Lasers and materials in selective laser sintering, Assembly Automation 23.4: 357-371.
⦁ Levy, G.N., Schindel, R., and Kruth, J.P., (2003) Rapid manufacturing and rapid tooling with layer manufacturing (LM) technologies, state of the art and future perspectives, CIRP Annals-Manufacturing Technology 52.2: 589-609.
⦁ Vrancken, B., Wauthlé, R., Kruth, J.P., and Humbeeck, J.V., (2013) Study of the influence of material properties on residual stress in selective laser melting. In Proceedings of the solid freeform fabrication symposium393-407.
⦁ Rao, R.V., (2010) Advanced modeling and optimization of manufacturing processes: international research and development, Springer Science & Business Media.
⦁ Guo, N., and Leu, M.C. , (2013) Additive manufacturing: technology, applications and research needs, Frontiers of Mechanical Engineering 8.3: 215-243.
⦁ Van Belle, L., Vansteenkiste, G., and Boyer, J.C., (2012) Comparisons of numerical modelling of the Selective Laser Melting. In Key Engineering Materials Vol. 504: 1067-1072.
⦁ Mercelis, P., and Kruth, J.P., (2006) Residual stresses in selective laser sintering and selective laser melting, Rapid prototyping journal 12.5: 254-265.
⦁ Nickel, A., Barnett, D., Link, G., and Prinz, F., (1999) Residual stresses in layered manufacturing. In Proceedings of the solid freeform fabrication symposium 239-246.
⦁ Kruth, J.P., Deckers, J., Yasa, E., and Wauthlé, R., (2012) Assessing and comparing influencing factors of residual stresses in selective laser melting using a novel analysis method. Proceedings of the institution of mechanical engineers, Part B: Journal of Engineering Manufacture 226.6: 980-991.
⦁ Poyraz, Ö., and Kuşhan, M. C., (2018) Investigation of the effect of different process parameters for laser additive manufacturing of metals, Journal of the Faculty of Engineering and Architecture of Gazi University, 33:2 (2018) 729-742.
⦁ Radaj, D., (1992) Heat Effects of Welding: Temperature Field, Residual Stress, Distortion, Springer.
⦁ Papadakis, L., Branner, G., Schober, A., Richter, K.H., and Uihlein, T., (2012) Numerical modeling of heat effects during thermal manufacturing of aero engine components, Proceedings of the World Congress on Engineering. Vol. 3.
⦁ Zeng, K., Deepankar, P., and Stucker, B., (2012) A review of thermal analysis methods in Laser Sintering and Selective Laser Melting. In Proceedings of the solid freeform fabrication symposium 796-814.
⦁ Kolossov, S., (2005) Non-Linear Model and Finite Element Simulation of the Selective Laser Sintering Process. PhD thesis, EPFL, 3178.
⦁ Lavery, N.P., Brown, S.G., Sienz, J., Cherry, J., and Belblidia, F., (2014) A review of Computational Modelling of Additive Layer Manufacturing–multi-scale and multi-physics. Sustainable Design and Manufacturing 651: 673.
⦁ Körner, C., Attar, E., and Heinl, P., (2011) Mesoscopic simulation of selective beam melting processes. Journal of Materials Processing Technology 211:978–987
⦁ Niebling, F., Otto, A., and Geiger, M., (2002) Analyzing the DMLS-process by a macroscopic FE-model. In Proceedings of the solid freeform fabrication symposium 5-7.
⦁ Neugebauer, F., Keller, N., Xu, H., Kober C., and Ploshikhin, V., (2014) Simulation of selective laser melting using process specific layer based meshing. In Proceedings of Fraunhofer Direct Digital Manufacturing Conference.
⦁ Galati, M., and Iuliano, L., (2018) A literature review of powder-based electron beam melting focusing on numerical simulations. Additive Manufacturing 19: 1–20.
⦁ Rosenthal, D., (1946) The theory of moving sources of heat and its application to metal treatments, ASME.
⦁ Rykalin, N. N., (1951) Calculations of thermal processes in welding, Mashgiz, Moscow.
⦁ Carslaw, H.S., and Jaeger, J.C., (1959) Conduction of heat in solids, Clarendon Press Vol. 2, pp. 8-13.
⦁ Christensen, N., Davies, V.D.L., and Gjermundsen, K., (1965) Distribution of temperatures in arc welding, British Welding Journal 12(2), 54-75.
⦁ Swift-Hook, D.T. , and Gick, A.E.F., (1973) Penetration welding with lasers, Welding journal, 52(11), 492-499.
⦁ Cline, H.E., and Anthony, T., (1977) Heat treating and melting material with a scanning laser or electron beam, Journal of Applied Physics 48(9), 3895-3900.
⦁ Mazumder, J., and Steen, W.M., (1980) Heat transfer model for CW laser material processing, Journal of Applied Physics 51(2), 941-947.
⦁ Sun, M-S.M., and Beaman, J.J., (1991) A three dimensional model for selective laser sintering. In Proceedings of the solid freeform fabrication symposium pp 102-109.
⦁ Fischer, P., Romano, V., Weber, H., Karapatis, N., Boillat, E., and Glardon, R., (2003) Sintering of commercially pure titanium powder with a Nd:YAG laser source. Acta Materialia 51:1651–1662
⦁ Dai, K., and Shaw, L., (2001) Thermal and stress modeling of multi-material laser processing. Acta Materialia 49(20). pp. 4171-418
⦁ Jiang, W., Dalgarno, K.W., and Childs, T.H.C., (2002) Finite element analysis of residual stresses and deformations in direct metal SLS process. In Proceedings of the solid freeform fabrication symposium 340-348.
⦁ Roberts, I.A., Wang, C.J., Esterlein, R., Stanford, M., and Mynors, D.J., (2009) A three-dimensional finite element analysis of the temperature field during laser melting of metal powders in additive layer manufacturing. International Journal of Machine Tools and Manufacture, 49(12-13), 916-923.
⦁ Kundakcıoğlu, E., Lazoglu, I., Poyraz, Ö., Yasa, E., and Cizicioğlu, N., (2018) Thermal and molten pool model in selective laser melting process of Inconel 625, The International Journal of Advanced Manufacturing Technology, 1-8.
⦁ Ding, J., Colegrove, P., Mehnen, J., Ganguly, S., Almeida, P.S., Wang, F., and Williams, S., (2011) Thermo-mechanical analysis of Wire and Arc Additive Layer Manufacturing process on large multi-layer parts. Computational Materials Science, 50(12), 3315-3322.
⦁ Denlinger, E.R., Irwin, J., and Michaleris, P., (2014) Thermomechanical modeling of additive manufacturing large parts. Journal of Manufacturing Science and Engineering, 136(6), 061007.
⦁ Bai, P.-K., Cheng, J., Liu, B., and Wang, W.-F. (2006) Numerical simulation of temperature field during selective laser sintering of polymer-coated molybdenum powder. Transactions of Nonferrous Metals Society of China 16(2). pp. 603-607.
⦁ Li, C., Liu, J.F., Fang, X.Y., and Guo, Y.B., (2017) Efficient predictive model of part distortion and residual stress in selective laser melting. Additive Manufacturing, 17, 157-168.
⦁ Cheng, B., and Chou, K., (2015) Melt pool evolution study in selective laser melting, In Proceedings of the solid freeform fabrication symposium 1182-1194.
⦁ Everton, S.K., Hirsch, M., Stravroulakis, P., Leach, R.K., and Clare, A.T., (2016) Review of in-situ process monitoring and in-situ metrology for metal additive manufacturing. Materials & Design, 95, 431-445.
⦁ Krauss, H., Eschey, C., and Zaeh, M.F., (2012) Thermography for monitoring the selective laser melting process, In Proceedings of the solid freeform fabrication symposium.
⦁ Roberts, I.A., (2012) Investigation of residual stresses in the laser melting of metal powders in additive layer manufacturing, PhD. Thesis, University of Wolverhampton.
⦁ Withers, P.J., and Bhadeshia, H.K.D.H., (2001) Residual stress. Part 2–Nature and origins, Materials science and technology 17.4: 366-375.
⦁ Masubuchi, K., (2013) Analysis of welded structures: residual stresses, distortion, and their consequences. Vol. 33. Elsevier.
⦁ Chae, H.M., and Mazumder, J., (2011) Effects of Melt Pool Size on Transient and Residual Stress in DMD Process, 30th International Congress on Applications of Lasers and Electro-Optics, ICALEO 2011, 267-274.
⦁ Zaeh, M.F., and Branner, G., (2010) Investigations on residual stresses and deformations in selective laser melting, Production Engineering 4.1: 35-45.
⦁ Yang, Y.P., Jamshidinia, M., Boulware, P., and Kelly, S.M., (2017) Prediction of microstructure, residual stress, and deformation in laser powder bed fusion process, Computational Mechanics, 1-17.
⦁ Vogel, M., Khan, M., Medina, J.I., Pinkerton, A., Dri, N., and Megahed, M., (2012) A verified model of transient and residual stresses in Laser Direct Metal Deposition, 31st International Congress on Applications of Lasers and Electro-Optics, ICALEO 2012, 89-96.
⦁ Carlsson, S., and Larsson, P-L., (2001) On the determination of residual stress and strain fields by sharp indentation testing.: Part I: theoretical and numerical analysis, Acta materialia 49.12: 2179-2191.
⦁ Wang, X., and Chou, K., (2015) Residual stress in metal parts produced by powder-bed additive manufacturing processes, In Proceedings of the solid freeform fabrication symposium, 1463-1474.
⦁ Salmi, A., Atzeni, E., Iuliano, L., and Galati, M., (2017) Experimental analysis of residual stresses on AlSi10Mg parts produced by means of Selective Laser Melting (SLM), Procedia CIRP 62: 458-463.
⦁ Kempen, K., Vrancken, B., Buls, S., Thijs, L., Van Humbeeck, J., and Kruth, J.P., (2014) Selective laser melting of crack-free high density M2 high speed steel parts by baseplate preheating, Journal of Manufacturing Science and Engineering 136.6: 061026.
⦁ Andreotta, R., Ladani, L., and Brindley, W., (2017) Finite element simulation of laser additive melting and solidification of Inconel 718 with experimentally tested thermal properties, Finite Elements in Analysis and Design 135: 36-43.
⦁ Mills, K.C., (2002) Recommended values of thermophysical properties for selected commercial alloys, Woodhead Publishing.
⦁ Maglić, K.D., Cezairliyan, A., and Pelet︠s︡kiĭ, V.Ė., (1992) Compendium of Thermophysical Property Measurement Methods: Volume 2 Recommended Measurement Techniques and Practices, Springer US.
⦁ Yadroitsev, I., and Smurov, I., (2010) Selective laser melting technology: from the single laser melted track stability to 3D parts of complex shape, Physics Procedia 5: 551-560.
⦁ Liu, B., Wildman, R., Tuck, C., Ashcroft, I., and Hague, R., (2011) Investigation the effect of particle size distribution on processing parameters optimization in selective laser melting process, In Proceedings of the solid freeform fabrication symposium, 227-238.
⦁ Sih, S.S., and Barlow, J.W., (2004) The prediction of the emissivity and thermal conductivity of powder beds. Particulate Science and Technology 22.4: 427-440.
⦁ Loh, L.E., Chua, C.K., Yeong, W.Y., Song, J., Mapar, M., Sing, S.L., and Zhang, D.O., (2015) Numerical investigation and an effective modelling on the Selective Laser Melting (SLM) process with aluminum alloy 6061. International Journal of Heat and Mass Transfer 80: 288-300.
⦁ Gusarov, A.V., Laoui, T., Froyen, L., and Titov, V.I., (2003) Contact thermal conductivity of a powder bed in selective laser sintering, International Journal of Heat and Mass Transfer 46 1103–1109.
⦁ Ding, J., Colegrove, P., Mehnen, J., Ganguly, S., Sequeira Almeida, P.M., Wang, F., and Williams, S., (2011) Thermo-mechanical analysis of Wire and Arc Additive Layer Manufacturing process on large multi-layer parts, Computational Materials Science 50.12: 3315-3322.
⦁ Zekovic, S., Rajeev, D., and Kovacevic, R., (2005) Thermo-structural finite element analysis of direct laser metal deposited thin-walled structures, In Proceedings of the solid freeform fabrication symposium 338-355.
⦁ Badrossamay, M., and Childs, T.H.C., (2007) Further studies in selective laser melting of stainless and tool steel powders, International Journal of Machine Tools and Manufacture 47.5: 779-784.
⦁ Papadakis, L., Loizou, A., Risse, J., Bremen, S., and Schrage, J., (2013) A thermo-mechanical modeling reduction approach for calculating shape distortion in SLM manufacturing for aero engine components. In Proceedings of the 6th International Conference on Advanced Research in Virtual and Rapid Prototyping, Leiria, Portugal (pp. 1- 5).
⦁ Keller, N., and Ploshikhin, V., (2014) New method for fast predictions of residual stress and distortion of AM parts, In Proceedings of the solid freeform fabrication symposium 1229-1237.
⦁ Patil, N., Pal, D., Rafi, H.K., Zeng, K., Moreland, A., Hicks, A., and Stucker, B., (2015) A Generalized Feed Forward Dynamic Adaptive Mesh Refinement and Derefinement Finite Element Framework for Metal Laser Sintering—Part I: Formulation and Algorithm Development, Journal of Manufacturing Science and Engineering 137.4: 041001.
⦁ Romano, J., Ladani, L., and Sadowski, M., (2016) Laser additive melting and solidification of Inconel 718: Finite element simulation and experiment, Jom 68.3: 967-977.
⦁ Ikeshoji, T.T., Kyogoku, H., Yonehara, M., Araki, M., and Nakamura, K., (2016) Numerical Transient Heat Transfer Analysis Of Multi Laser Track On Powder Bed Of Ni-Based Alloy, In Proceedings of the solid freeform fabrication symposium 398-405.
⦁ Jhabvala, J., Boillat, E., Antignac, T., and Glardon, R., (2010) On the effect of scanning strategies in the selective laser melting process. Virtual and physical prototyping, 5(2), 99-109.
⦁ Poyraz, Ö., Yasa, E., Akbulut, G., Orhangul, A., and Pilatin, S., (2015) Investigation of support structures for direct metal laser sintering (DMLS) of IN625 parts, In Proceedings of the solid freeform fabrication symposium 560-574.
⦁ Seidel, C.., Zaeh, M.F., Wunderer, M., Weirather, J., Krol, T.A., and Otto, M., (2014) Simulation of the Laser Beam Melting Process–Approaches for an Efficient Modelling of the Beam-material Interaction, Procedia CIRP, 25, 146-153.
⦁ Krol, T.A., Seidel, C., Schilp, J., Hofmann, M., Gan, W., and Zaeh, M.F., (2013) Verification of structural simulation results of metal-based additive manufacturing by means of neutron diffraction, Physics Procedia 41: 849-857.
⦁ Steuben, J.C., Birnbaum, A.J., Michopoulos, J.G., and Iliopoulos, A.P., (2018) Enriched Analytical Solutions for Additive Manufacturing Modeling and Simulation. Additive Manufacturing, https://doi.org/doi:10.1016/j.addma.2018.10.017.
⦁ Yan, W., Lian, Y., Yu, C., Kafka, O.L., Liu, Z., Liu, W.K., and Wagner, G.J., (2018) An integrated process–structure–property modeling framework for additive manufacturing, Computer Methods in Applied Mechanics and Engineering, 339, 184-204.
⦁ Poyraz, Ö., (2018) Investigation of the Effects of Process Parameters for Laser Additive Manufacturing by Using Modeling and Simulation Methods, PhD. Thesis, Eskişehir Osmangazi University.
⦁ Wilson-Heid, A.E., Qin, S., and Beese, A.M., (2018) Anisotropic multiaxial plasticity model for laser powder bed fusion additively manufactured Ti-6Al-4V, Materials Science and Engineering: A, 738, 90-97.
⦁ Ríos, S., Colegrove, P.A., Martina, F., and Williams, S.W. (2018) Analytical process model for wire+ arc additive manufacturing, Additive Manufacturing, 21, 651-657.
⦁ Westbeek, S., van Dommelen, J.A.W., Remmers, J.J.C., and Geers, M.G.D., (2018) Multiphysical modeling of the photopolymerization process for additive manufacturing of ceramics, European Journal of Mechanics-A/Solids, 71, 210-223.
⦁ Zhao, Y., Sun, J., Li, J., Wang, P., Zheng, Z., Chen, J., and Yan, Y., (2018) The stress coupling mechanism of laser additive and milling subtractive for FeCr alloy made by additive–subtractive composite manufacturing, Journal of Alloys and Compounds, 769, 898-905.

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ISSN: 1304-7191
Yayın Aralığı: Yılda 4 Sayı
Yayıncı: Yıldız Teknik Üniversitesi

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