Slag-Hanging Capacity of Numerical Simulation and Analysis of Blast Furnace Copper Cooling Plate Based on ANSYS ‘Birth–Death Element’

IF 2.5 3区 材料科学 Q3 GREEN & SUSTAINABLE SCIENCE & TECHNOLOGY Journal of Sustainable Metallurgy Pub Date : 2024-04-26 DOI:10.1007/s40831-024-00818-1
Zhen Zhang, Jue Tang, Mansheng Chu, Quan Shi, Chuanqiang Wang
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Abstract

At present, there were two main problems with the cooling plate slag-hanging: One was that the research on the slag-hanging mechanism of cooling plate was not deep, and the other was that the calculation process of the slag layer thickness with cooling plate was unreasonable. Based on ANSYS ‘birth–death element,’ a slag layer iterative cycle calculation method was designed, and the change of slag layer under different boundary conditions was analyzed. The gas temperature increased from 1200 to 1600 °C, and the slag layer decreased from 56 to 8 mm. When the gas temperature was 1550 °C, the copper cooling plate would exceeded safe operating temperature (120 °C). The thermal conductivity increased from 1.2 W·m2 °C−1 to 2.2 W·m2·°C−1, and the slag layer was able to be thickened by 76–85%; however, the slag layer would became non-uniform. When the temperature of slag-hanging increased by 50 °C, the slag layer increased by about 6.9 mm-7.6 mm, and the uniformity of slag layer increased by 10%. The maximum temperature of cooling plate could be reduced by 5°C–10°C when the cooling water speed increased by 1 m·s−1. The cooling water temperature was reduced by 10 °C, and the maximum temperature of cooling plate and the measuring point temperature could be reduced about 10 °C. The above research and analysis provided a basis for the blast furnace to have a reasonable operating furnace type and a longer life.

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基于 ANSYS "生-死元素 "的高炉铜冷却板数值模拟和分析的挂渣能力
目前,冷却板挂渣主要存在两个问题:一是对冷却板挂渣机理研究不深,二是冷却板渣层厚度计算过程不合理。基于 ANSYS 的 "生灭元素",设计了一种渣层迭代循环计算方法,并分析了不同边界条件下渣层的变化。气体温度从 1200 ℃ 上升到 1600 ℃,渣层从 56 mm 下降到 8 mm。当气体温度为 1550 ℃ 时,铜冷却板将超过安全工作温度(120 ℃)。导热系数从 1.2 W-m2 °C-1 增加到 2.2 W-m2-°C-1,渣层厚度增加了 76-85%,但渣层变得不均匀。当挂渣温度提高 50 ℃ 时,渣层增加了约 6.9 mm-7.6 mm,渣层的均匀性提高了 10%。当冷却水速度增加 1 m-s-1 时,冷却板的最高温度可降低 5℃-10℃。冷却水温度降低 10 °C,冷却板最高温度和测量点温度可降低约 10 °C。上述研究和分析为高炉拥有合理的操作炉型和更长的使用寿命提供了依据。 图文摘要
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来源期刊
Journal of Sustainable Metallurgy
Journal of Sustainable Metallurgy Materials Science-Metals and Alloys
CiteScore
4.00
自引率
12.50%
发文量
151
期刊介绍: Journal of Sustainable Metallurgy is dedicated to presenting metallurgical processes and related research aimed at improving the sustainability of metal-producing industries, with a particular emphasis on materials recovery, reuse, and recycling. Its editorial scope encompasses new techniques, as well as optimization of existing processes, including utilization, treatment, and management of metallurgically generated residues. Articles on non-technical barriers and drivers that can affect sustainability will also be considered.
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