Influence of Selected Model Parameters on the Electromagnetic Levitation Melting Efficiency

被引:6
|
作者
Nycz, Blazej [1 ]
Malinski, Lukasz [1 ]
Przylucki, Roman [1 ]
机构
[1] Silesian Tech Univ, Div Ind Informat, Krasinskiego 8, PL-40019 Katowice, Poland
来源
APPLIED SCIENCES-BASEL | 2021年 / 11卷 / 09期
关键词
electromagnetic levitation; metal melting; electromagnetic field; PERFORMANCE; DYNAMICS; DESIGN;
D O I
10.3390/app11093827
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
The article presents the results of multivariate calculations for the levitation metal melting system. The research had two main goals. The first goal of the multivariate calculations was to find the relationship between the basic electrical and geometric parameters of the selected calculation model and the maximum electromagnetic buoyancy force and the maximum power dissipated in the charge. The second goal was to find quasi-optimal conditions for levitation. The choice of the model with the highest melting efficiency is very important because electromagnetic levitation is essentially a low-efficiency process. Despite the low efficiency of this method, it is worth dealing with it because is one of the few methods that allow melting and obtaining alloys of refractory reactive metals. The research was limited to the analysis of the electromagnetic field modeled three-dimensionally. From among of 245 variants considered in the article, the most promising one was selected characterized by the highest efficiency. This variant will be a starting point for further work with the use of optimization methods.
引用
收藏
页数:18
相关论文
共 50 条
  • [31] A Methodology for Modeling Electromagnetic Confinement Systems: Application to Levitation Melting
    El-Kaddah, Nagy
    Natarajan, Thinium T.
    CELEBRATING THE MEGASCALE: PROCEEDINGS OF THE EXTRACTION AND PROCESSING DIVISION SYMPOSIUM ON PYROMETALLURGY IN HONOR OF DAVID G.C. ROBERTSON, 2014, : 409 - 416
  • [32] The Influence of Selected Melting Parameters on the Physical and Chemical Properties of Cast Iron
    Petrus, L.
    Bulanowski, A.
    Kolakowski, J.
    Brzezanski, M.
    Urbanowicz, M.
    Sobieraj, J.
    Matuszkiewicz, G.
    Szwalbe, L.
    Janerka, K.
    ARCHIVES OF FOUNDRY ENGINEERING, 2020, 20 (01) : 105 - 110
  • [33] The influence of filter on stability of electromagnetic levitation system
    Hong, HJ
    Li, J
    2004 8TH INTERNATIONAL CONFERENCE ON CONTROL, AUTOMATION, ROBOTICS AND VISION, VOLS 1-3, 2004, : 1379 - 1383
  • [34] Thermophysical property measurements by electromagnetic levitation melting technique under microgravity
    Bakhtiyarov, SI
    Overfelt, RA
    MICROGRAVITY TRANSPORT PROCESSES IN FLUID, THERMAL, BIOLOGICAL, AND MATERIALS SCIENCES, 2002, 974 : 132 - 145
  • [35] Vacuum electromagnetic levitation melting and undercooling of peritectic terfenol-D
    Ma, WZ
    Zheng, HX
    Ji, CC
    Li, JG
    JOURNAL OF RARE EARTHS, 2003, 21 (05) : 563 - 566
  • [36] Laboratory prototype of the double frequency longitudinal electromagnetic levitator for levitation melting
    Bullo, M.
    Dughiero, F.
    Forzan, M.
    Lupi, S.
    MAGNETOHYDRODYNAMICS, 2007, 43 (02): : 151 - 159
  • [37] Vacuum Electromagnetic Levitation Melting and Undercooling of Peritectic Terfenol-D
    马伟增
    郑红星
    季诚昌
    李建国
    Journal of Rare Earths, 2003, (05) : 563 - 566
  • [38] Influence of selected construction parameters of electromagnetic mill on its operational properties
    Jablonski, Pawel
    Drozdz, Tomasz
    Gliniak, Maciej
    Trzyniec, Karolina
    Lis, Anna
    Kielbasa, Pawel
    Malinowski, Mateusz
    PRZEGLAD ELEKTROTECHNICZNY, 2020, 96 (02): : 79 - 82
  • [39] Experimental validation of electromagnetic-thermal coupled modelling of levitation melting
    Hectors, Dietrich
    Van Reusel, Koen
    Driesen, Johan
    PRZEGLAD ELEKTROTECHNICZNY, 2008, 84 (11): : 140 - 143
  • [40] Iterative model for shape prediction in levitation melting process
    Shoihet, A.
    Frechter, Y.
    Berdichevsky, V.
    Shvartsas, M.
    Rabinovici, R.
    INTERNATIONAL JOURNAL OF APPLIED ELECTROMAGNETICS AND MECHANICS, 2017, 53 : S11 - S19