A numerical modelling of an electric arc and its interaction with the anode: Part I. The two-dimensional model

By F. Lago, Jean-Jacques Gonzalez, P. Freton, A. Gleizes. 2004

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The effects of metal vapour in arc welding (2010, methodology): “The main exceptions are the work of Lago et al [158] and Gonzalez et al [159] for iron anodes, in which much higher concentrations were predicted.”
The anode region of electric arcs: a survey (2010, methodology): “A recent model by Lago et al [92] assumes LTE throughout the boundary layer and gets around the problem of current transport through a cold gas layer by assuming an electrical conductivity of copper in the boundary layer, but the other”
Roadmap on multiscale materials modeling (2020, background): “The macroscopic simulation of these phenomena requires efficient multiphysics codes that couple electrical and heat transport equations with plasma physics and mechanical and acoustic interactions [127, 128] (figure 12).”
Modelling of thermal plasmas for arc welding: the role of the shielding gas properties and of metal vapour (2009, background): “(7 mol% in a 200 A arc) and Lago et al [106] (40 mol% in a”
‘LTE-diffusion approximation’ for arc calculations (2006, background): “A term involving jkT /e is also frequently introduced to account for energy transfer of electrons at high temperature to the anode (Amakawa et al 1998, Lago et al 2004).”