Nguyen, Q., Yang, C.Y., “Inverse determination of laser power on laser welding with a given width penetration by a modified Newton-Raphson method,” International Communications in Heat and Mass Transfer, 65, pp. 15–21 (2015).
Pavelic, V., Tanbakuchi, R., Uyehara, O.A., “Experimental and computed temperature histories in gas tungsten arc welding of thin plates,” Welding Journal Research Supplement, 48, pp. 295–305 (1969).
Goldak, J., Chakravarti, A., Bibby, M., “A new finite element model for welding heat sources,” Metallurgical and Material Transactions B, 15B, pp. 299–305 (1984).
Goldak, J., “Computer modeling of heat flow in welds” Metallurgical and Material Transactions B, 17, pp. 587–600 (1986).
Ha, E.J., Kim, W.S., “A study of low-power density laser welding process with evolution of free surface,” International Journal of Heat Fluid Flows, 26 (4), pp. 613–521 (2005).
De, A., DebRoy B., “Probing unknown welding parameters from convective heat transfer calculation and multivariable optimization,” Journal of Physics B, 37 (1), pp. 140–150 (2004).
Lalas, C., Tsirbas, K., Salonitis, K., Chryssolouris, G., “An analytical model of the laser clad geometry,” International Journal of Advanced Manufacturing Technology, 32, pp. 34–41 (2007).
Toyserkani, E., Khajepour, A., Corbin, S., “3-D finite element modeling of laser cladding by powder injection: effects of laser pulse shaping on the process,” Optics and Lasers in Engineering, 41, pp. 849–867 (2004).
Ya, W., Pathiraj, B., Liu, S., “2D modeling of clad geometry and resulting thermal cycle during laser cladding,” Journal of Materials Processing Technology, 230, pp. 217–232 (2016).
Hofman, J.T., de Lange, D.E., Pathiraj, B., Meijer, J., “FEM modelling and experimental verification for dilution control in laser cladding,” Journal of Materials Processing Technology, 211, pp. 187–196 (2011).
Palumbo, G., Pinto, S., Tricarico, L., “Numerical finite element investigation on laser cladding treatment of ring geometries,” Journal of Materials Processing Technology, 155-156, pp. 1443–1450 (2004).
Parekh, R., Buddu, R.K., Patel, R.I., “Multiphysics simulation of laser cladding process to study the effect of process parameters on clad geometry,” Procedia Technology, 23, pp. 529–536 (2016).
Liu, J., Li, L., “Study on cross-section clad profile in coaxial single-pass cladding with a low-power laser,” Optics & Laser Technology, 37, pp. 478–482 (2005).
Sistaninia, M., Sistaninia, M., Moeanodini, H., “Laser surface hardening considering coupled thermoelasticity,” Journal of Mechanics, 25, pp. 241249 (2009).
Yang, L.X., Peng, X.F., Wang, B.X., “Numerical modeling and experimental investigation on the characteristics of molten pool during laser processing,” International Journal of Heat and Mass Transfer, 44, pp. 4465–4473 (1986).
16.Lien, F.S., Chen, W.L., Leschziner M.A., “A multiblock implementation of a non-orthogonal, collocated finite volume algorithm for complex turbulent flows,” International Journal of Numerical Methods in Fluids, 23, pp. 567–588 (1996).
17.Mills, K.C., “Recommended values of thermal physical properties for selected commercial alloys,” Woodhead Publishing Ltd., Cambridge, UK (2002).
18.Hofman, J.T., “Development of an observation and control system for industrial laser cladding,” Ph.D. Thesis, University of Twente, The Netherlands (2009).