Modelling of Heat and Mass Transfer for Wire-Based Additive Manufacturing Using Electric Arc and Concentrated Sources of Energy

  • Authors

    • Dmitriy Trushnikov
    • Anatoly Perminov
    • Shengyong Pang
    • K. P. Karunakaran
    • Vladimir Belenkiy
    • Gleb Permyakov
    • Maksim Kartashov
    • Evgeniy Matveev
    • Alena Dushina
    • Yury Schitsyn
    • . .
    2018-12-03
    https://doi.org/10.14419/ijet.v7i4.38.25777
  • additive manufacturing, 3D wire-based deposition, arc and concentrated heat sources, modelling of heat and mass transfer, numerical implementation.
  • Abstract

    The paper presents a model developed by the authors and aimed to describe heat and mass transfer during wire-based additive manufacturing, when electron beam, plasma or arc are used as energy sources in case of non-consumable electrode welding. The model describes non-stationary and non-equilibrium conjugated processes of heat and mass transfer in free-surface liquid metal. The solution of differential equations of viscous fluid motion (Navier-Stokes), with convective terms and at laminar flow, has become the model base. Melting and crystallization of the metal is recognized by heat release in a two-phase region. The material density variation during phase transitions of the first and the second order can be described by introducing a certain dependence on temperature. The model is able to consider the use of preliminary and additional induction heating by changing the initial temperature and establishing an additional distributed bulk heat source. Variables for the simulation of heat and mass transfer during additive formation are the intensity and type of the heat source, the plate initial temperature, the power density distribution, the intensity of the additional bulk heating, the dependence of material thermal and physical characteristics on temperature, the characteristics of the phase transitions, the motion velocity of the heat source, the rate of wire feeding.

     

  • References

    1. [1] D.H. Ding, Z.X. Pan, D. Cuiuri, et al., Wire-feed additive manufacturing of metal components: technologies, developments and future interests, International Journal of Advanced Manufacturing Technology, 81(l-4), (2015), 465-481.

      [2] J. Ding, P. Colegrove, J. Mehnen, et al., Thermo-mechanical analysis of wire and arc additive layer manufacturing process on large multi-layer parts, Computational Materials Science, 50(12), (2011), 3315-3322.

      [3] S.W. Williams, F. Martina, A.C. Addison, et al., Wire plus arc additive manufacturing, Materials Science and Technology, 32(7), (2016), 641-647.

      [4] J. Xiong, Y.Y. Lei, H. Chen, et al., Fabrication of inclined thin-walled parts in multi-layer single-pass GMAW-based additive manufacturing with flat position deposition, Journal of Materials Processing Technology, 240, (2017), 397-403.

      [5] M. P. Mughal, Ð. Fawad, R.A. Mufti, et al., Deformation modelling in layered manufacturing of metallic parts using gas metal arc welding: effect of process parameters, Modelling And Simulation In Materials Science And Engineering, 13(7), (2005), 187-204.

      [6] A. Vasinonta, J.L. Beuth, M. Griffith, Process maps for predicting residual stress and melt pool size in the laser-based fabrication of thin-walled structures, Journal of Manufacturing Science and Engineering, 129(1), (2007), 101-109.

      [7] V. Manvatkar, A. De, T. Deb Roy, Heat transfer and material flow during laser assisted multi-layer additive manufacturing, Journal of AppIied Physics, 116(12), (2014).

      [8] L.E. Svensson, B. Gretoft, H. Bhadeshia, An analysis of cooling curves from the fusion zone of steel weld deposits, Scandinavian Journal of Metallurgy, 15(2), (1986), 97-103.

      [9] I. M. Mark, C. Korner, Multiscale modeling of powder bed-based additive manufacturing, Annual Review of Materials Research, 46, (2016), 93-123.

      [10] T. Amine, J.W. Newkirk, F. Liou. Investigation of effect of process parameters on multilayer builds by direct metal deposition, Applied Thermal Engineering, 73(1), (2014), 500-511.

      [11] Y.P. Hu, C.W. Chen, K. Mukherjee, Measurement of temperature distributions during laser cladding process, Journal of Laser Applications, 12(3), (2000), 126-130.

      [12] I.V. Shishkovsky, V.I. Scherbakov, Y.G. Morozov, et al., Surface laser sintering of exothermic powder compositions, Journal of Thermal Analysis and Calorimetry, 91(2), (2008), 427-436.

      [13] J. Benda, Temperature controlled selective laser sintering. Solid Freeform Fabrication Symposium, Austin, 1994, 277-284.

      [14] M. Doubenskaia, M. Pavlov, Y. Chivel, Optical system for on-line monitoring and temperature control in selective laser melting technology, Key engineering materials, 437, (2010), 458-461.

      [15] D. Hu., R. Kovacevic, Sensing, modeling and control for laser-based additive manufacturing, International Journal of Machine Tools and Manufacture, 43(l), (2003), 51-60.

      [16] X. Jian, S. Jinghua, G. Yiqingc, Novel measurement method for selective laser sintering transient temperature field, 3rd International symposium on advanced optical manufacturing and testing technologies: optical test and measurement technology and equipment, (2007), 67234.

      [17] S. Price, K. Cooper, K. Chou, Evaluations of temperature measurements by near-infrared thermography in powder-based electron-beam additive manufacturing, International Journal of Rapid Manufacturing (IJRAPIDM), 4(1), (2014), 761-773

      [18] J.U. Brackbill, D.B.Kothe, C. Zemach, A continuum method for modeling surface tension, Journal of Computational Physics, 100, (1992), 335-354.

      [19] M. Sussman, P. Smereka, S. Osher, A level set approach for computing solutions to incompressible two-phase flow, Journal of computational physics, 114, (1994), 146-159.

      [20] M. Sussman, E. Fatemi, P. Smereka, et al., An improved level set method for incompressible two-phase flow, Computers & Fluids, 27(5-6), (1998), 663-680.

      [21] J. Mazumder, H. Qi, H. Ki, Numerical simulation of heat transfer and fluid flow in coaxial laser cladding process for direct metal deposition, Journal of Applied Physics, 100(2), (2006), 024903.

      [22] F. Kong, H. Zhang, G. Wang, Modeling of heat transfer, fluid flow and solute diffusion in the plasma deposition manufacturing functionally gradient materials, PIERS Proceedings, Moscow, Russia, August 18-21, 2009,1948-1952.

      [23] I. Tomashchuk, P. Sallamand, J.M. Jouvard,et al., The simulation of morphology of dissimilar copper–steel electron beam welds using level set method, Computational Materials Science, 48(4), (2010), 827-836.

      [24] V. Manvatkar, A. De, T. Deb Roy, Spatial variation of melt pool geometry, peak temperature and solidification parameters during laser assisted additive manufacturing process, Materials Science and Technology, 3l(8), (2015), 924-930.

      [25] A. Raghavan, H.L. Wei, Т.Ð. Palmer, et al., Heat transfer and fluid flow in additive manufacturing, Journal of Laser Applications, 25(5), (2013), 052006.

      [26] S. Patankar, Numerical heat transfer and fluid flow. CRC Press, New York, 1980.

      [27] S.A. David, T. Deb Roy, Current issues and problems in welding science, Science, 257(5069), (1992), 497-502.

      [28] T. Deb Roy, S.A. David, Physical processes in fusion welding, Reviews of Modern Physics, 67(1), (1995), 85-112.

      [29] I. A. Kharitonov, V.N. Martynov, V. K. Shcherbakov, et al., The Second International Conference on Electron Beam Welding and Related Technologies, National Research University "Moscow Power Engineering Institute", November 14-17, 2017, Book of materials and reports, MPEI Publishing House, Moscow, 2017, 257-265.

      [30] X. Hе, J. Mazumder, Transport phenomena during direct metal deposition, Journal of Applied Physics 101(5) (2007) 053113.

      [31] S. Morville, M. Carin, P. Peyre, et al., 2D longitudinal modeling of heat transfer and fluid flow during multilayered direct laser metal deposition process, Journal of Laser Applications, 24(3), (2012).

      [32] S.Y. Wen, Y.C. Shin, Modeling of transport phenomena during the coaxial laser direct deposition process, Journal of Applied Physics, 108(4), (2010).

      [33] A.I. Tsaplin, I.L. Nikulin, Modelling of thermophysical processes and objects in metal industry: coursebook, Publishing house of Perm State Technical University, Perm, 2011.

      [34] E. Strakhova, V.A. Erofeev, V.A. Sudnik, Physical and Mathematical Modeling of Wide-Layer Cladding with Transverse Oscillations of Plasma, Welding and Diagnostics, 3, (2009), 32-38.

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  • How to Cite

    Trushnikov, D., Perminov, A., Pang, S., P. Karunakaran, K., Belenkiy, V., Permyakov, G., Kartashov, M., Matveev, E., Dushina, A., Schitsyn, Y., & ., . (2018). Modelling of Heat and Mass Transfer for Wire-Based Additive Manufacturing Using Electric Arc and Concentrated Sources of Energy. International Journal of Engineering & Technology, 7(4.38), 741-747. https://doi.org/10.14419/ijet.v7i4.38.25777

    Received date: 2019-01-12

    Accepted date: 2019-01-12

    Published date: 2018-12-03