Scholarlink

<p>The electromagnetic swirling flow in nozzle (EMSFN) technique is designed to mitigate the adverse effects of unstable and uneven flow within the submerged entry nozzle in continuous casting. Utilizing electromagnetic forces, EMSFN stabilizes the flow within the nozzle, leading to a more controlled flow in the mold. Numerical simulations were used to&#xa0;quantitatively analyze the magnetic and flow fields in a slab continuous casting system under EMSFN. Results indicate that EMSFN significantly stabilizes the outflow from the nozzle, with stability increasing with higher current intensity. At 10,000 Ampere-turns (At) of the coil, meniscus fluctuations were unstable. They stabilized at 13,000 At, with minimal changes observed beyond this point. The optimal current intensity for stable mold flow, at a casting speed of 1.56&#xa0;m/min, is 13,000 At. These findings confirm the effectiveness of EMSFN in stabilizing the internal flow field of the slab mold and determining optimal operational current intensity.</p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Electromagnetic swirling flow control in nozzle in slab continuous casting

  • 期刊论文

  • 发表日期：

    2025年3月28日

查看全文
  • Xiao-wei Zhu,
  • Xian-cun Liu,
  • Li-jia Zhao,
  • De-wei Li,
  • Chen Tian,
  • Kai Wang,
  • Bai-gang Jin,
  • Qiang Wang

摘要

The electromagnetic swirling flow in nozzle (EMSFN) technique is designed to mitigate the adverse effects of unstable and uneven flow within the submerged entry nozzle in continuous casting. Utilizing electromagnetic forces, EMSFN stabilizes the flow within the nozzle, leading to a more controlled flow in the mold. Numerical simulations were used to quantitatively analyze the magnetic and flow fields in a slab continuous casting system under EMSFN. Results indicate that EMSFN significantly stabilizes the outflow from the nozzle, with stability increasing with higher current intensity. At 10,000 Ampere-turns (At) of the coil, meniscus fluctuations were unstable. They stabilized at 13,000 At, with minimal changes observed beyond this point. The optimal current intensity for stable mold flow, at a casting speed of 1.56 m/min, is 13,000 At. These findings confirm the effectiveness of EMSFN in stabilizing the internal flow field of the slab mold and determining optimal operational current intensity.