Dissipation of Electrical Energy in Submerged Arc Furnaces Producing Silicomanganese and High-Carbon Ferromanganese

被引:0
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作者
Joalet Dalene Steenkamp
Christopher James Hockaday
Johan Petrus Gous
Thabo Witness Nzima
机构
[1] MINTEK,
[2] Transalloys Pty (Ltd),undefined
[3] Assmang Proprietary Limited,undefined
来源
JOM | 2017年 / 69卷
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摘要
Submerged-arc furnace technology is applied in the primary production of ferroalloys. Electrical energy is dissipated to the process via a combination of arcing and resistive heating. In processes where a crater forms between the charge zone and the reaction zone, electrical energy is dissipated mainly through arcing, e.g., in coke-bed based processes, through resistive heating. Plant-based measurements from a device called “Arcmon” indicated that in silicomanganese (SiMn) production, at times up to 15% of the electrical energy used is transferred by arcing, 30% in high-carbon ferromanganese (HCFeMn) production, compared with 5% in ferrochromium and 60% in ferrosilicon production. On average, the arcing is much less at 3% in SiMn and 5% in HCFeMn production.
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页码:1712 / 1716
页数:4
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