Show source-provided references
4. Finkelburg, V., and Mekker, G. (1961). Ehlektricheskie Dugi i Termicheskaja Plazma [Electric Arcs and Thermal Plasma], M. Pub. Izdatelstvo Inostrannojj Literatury [Foreign Literature Publishing House]. (In Russian).
5. Anders, A. Cathodic Arcs: From Fractal Spots to Energetic Condensation, Springer.
10. Cathode spot motion in high-current vacuum arcs under self-generated azimuthal and applied axial magnetic fields
10.1088/0022-3727/17/4/013 ↗11. High-resolution observation of cathodic arc spots in a magnetically steered arc plasma source in low pressure argon, nitrogen, and oxygen atmospheres
10.1063/5.0072021 ↗17. The atmospheric-pressure plasma jet: A review and comparison to other plasma sources
10.1109/27.747887 ↗18. Cathodic cleaning of oxides from aluminum surface by variable-polarity arc
19. Rakhovskii, V.I. (1970). Fizicheskie Osnovy Kommutatsii Elektricheskogo Toka v Vakuume. [Physical Bases of Switching Electric Current in a Vacuum], Nauka.
22. Dynamics of cathode spots in low-pressure arc plasma removing oxide layer on steel surfaces
10.1063/1.4942870 ↗23. Insights into surface modification and erosion of multi-element arc cathodes using a novel multilayer cathode design
10.1063/1.5141406 ↗24. Kesayev, I.G. (1968). Katodnye Protsessy Elektricheskoi Dugi (Cathode Processes of Electric Arc), Nauka. (In Russian).
25. Mesyats, G.L. (2000). Ektonyi v Vakuumnom Razryade: Proboy, Iskra, Duga, RAS. (In Russian).
29. Investigation of cathode spots and plasma formation of vacuum arcs by high speed microscopy and spectroscopy
10.1109/27.640667 ↗31. The dynamics of arc cathode spots in vacuum
32. Dos Santos, E.B.F., Kuroiwa, L.H., Ferreira, A.F.C., Pistor, R., and Gerlich, A.P. (2017). On the Visualization of Gas Metal Arc Welding Plasma and the Relationship Between Arc Length and Voltage. Appl. Sci., 7.
10.3390/app7050503 ↗33. Deep learning based real-time and in-situ monitoring of weld penetration: Where we are and what are needed revolutionary solutions?
10.1016/j.jmapro.2023.03.011 ↗34. Somerville, J.M. (1959). The Electric Arc, Methuen and Company, Ltd.
41. Microstructure of the current channels in a nanosecond spark discharge in atmospheric-pressure air in uniform and highly nonuniform electric fields
10.1134/1.2051454 ↗42. Parameters of a Microstructure of Erosion Regions during the Action of a Spark Discharge on a Copper Electrode Surface in Air
10.1134/S1063784218100237 ↗45. Effect of anode composition on tungsten arc characteristics
46. Measurement of anode falls and anode heat transfer in atmospheric pressure high intensity arcs
10.1063/1.333129 ↗48. Capability enhancement of production of activating fluxes for arc welding using ultradispersed products of silicon waste processing
10.1088/1757-899X/411/1/012035 ↗49. Visualization of the process of metal heating and melting in the anode zone in an arc discharge with a tungsten electrode
10.1134/S0018151X16050060 ↗50. Invisible Structure of the Cathode Spot of a Welding Arc with a Tungsten Anode and a Film Cathode Burning in an Inert Gas
10.1134/S0018151X19010012 ↗53. Rykalin, N.N., Kublanov, V.Y., and Zherebovich, A.S. (1974). Study of hydrodynamic flows inbath models applied to plasma-arc remelting. Physics and Chemistry of Materials Processing, The Chemical Rubber. Publishing Co.
54. A Perspective on Arc Welding Research: The Importance of the Arc, Unresolved Questions and Future Directions
10.1007/s11090-015-9620-2 ↗55. A Review of Anode Phenomena in Vacuum Arcs. Contrib
56. Secondary plasma in the gap of high current vacuum arcs: Origin and resulting effects
59. Shoeck, P. (1966). An Investigation of the Energy Balance on the Anode of High-Current Arcs Birning in an Argon Atmosphere. Sovremennye Problemy Teploobmena, Energiya.
61. Numerical Simulation of Metal Vapor Behavior in Argon TIG Welding
62. Effect of evaporation and temperature—dependent materialproperties on weld pool development
10.1007/BF02652488 ↗63. Landau, L.D., and Lifshits, E.M. (1982). Electrodynamics of Continuous Media, Nauka. (In Russian).
65. Electrons in metals (Introduction to the theory of Fermi surfaces). Part V. Construction of the Fermi surface
66. Fu, Y.H. (1990). Cathode Surface Effects and H.F.-Behaviour of Vacuum Arcs. [Ph.D. Thesis, Electrical Engineering, Technische Universiteit Eindhoven].
67. The influence of the thermophysical properties of the cathode material on the magnitude of the cathode voltage in an arc discharge
68. Influence of Welding Regimes on Structure and Properties of Steel 12KH18N10T Weld Metal in Different Spatial Positions
10.1007/s11015-022-01271-9 ↗69. Study of the Effect of K2O, Na2O, MgO, Al2O3 Oxide Additions on Density, Viscosity, Separability and Covering Capacity of CaO–MnO–SiO2 System Slag in Low Carbon Steel Automatic Submerged Arc Welding
10.1007/s11015-023-01602-4 ↗70. Rezanov, V.A., Martyushev, N.V., Kukartsev, V.V., Grinek, A.A., Skeeba, V.Y., Lyosin, A.V., and Karlina, A.I. (2022). Study of Melting Methods by Electric Resistance Welding of Rails. Metals, 12.
10.3390/met12122135 ↗71. Comparative evaluation of austenite grain in high-strength rail steel during welding, thermal processing and plasma surface hardening
10.1088/1757-899X/560/1/012185 ↗75. Reguera, D., Rubí, J.M., and Bonilla, L.L. (2001). Pattern Formation in Electric Discharges. Coherent Structures in Complex Systems, Springer. Lecture Notes in Physics.
10.1007/3-540-44698-2 ↗77. Investigation of the relationship between arc-anode attachment mode and anode temperature for nickel nanoparticle production by a DC arc discharge
10.1088/0022-3727/49/12/125201 ↗