钢渣矿化捕集CO2化学路径研究进展
Research Progress on Chemical Pathways for CO2 Capture by Steel Slag Mineralization
DOI: 10.12677/meng.2025.123019, PDF,    科研立项经费支持
作者: 孙萌遥, 梅孝辉*, 孙培钧, 黄雨燃, 汤烨铭, 李玲玲, 彭小林：辽宁科技学院冶金与材料工程学院，辽宁 本溪
关键词: 钢渣；二氧化碳；碳捕集；资源利用；Steel Slag； Carbon Dioxide； Carbon Capture； Resource Utilization
摘要: 钢铁行业是能源密集型产业，钢渣和CO2是冶炼过程中伴随排放的两大副产物。利用钢渣进行CO2的捕集与利用技术被认为是实现钢铁冶炼副产物资源循环利用的可行且前景广阔的技术。本文首先介绍了钢渣的物理化学性质，分析了钢渣作为碳捕集原料的可行性和潜力应用价值。其次，本文讨论了现有钢渣捕集CO2的工艺途径及碳捕集反应影响因素，对不同钢渣碳捕集工艺的反应机理进行了深入的解析。最后，基于目前钢渣碳化技术的研究现状，提出其发展前景和有待深入研究的方向。
Abstract: The iron and steel industry is energy-intensive, and steel slag and CO2 are the two major byproducts that accompany emissions during the smelting process. The use of steel slag for CO2 capture and utilization is a feasible and promising technology to achieve waste resource recycling. This paper firstly introduces the physicochemical properties of steel slag. The feasibility and potential application value of steel slag as a raw material for carbon capture are analyzed. Secondly, this paper discusses the existing process pathways for CO2 capture from steel slag and the factors affecting the carbon capture reaction. The reaction mechanisms of different steel slag carbon capture processes are analyzed. Finally, based on the current research status of steel slag carbonization technology, its development prospects and directions to be studied are proposed.
文章引用：孙萌遥, 梅孝辉, 孙培钧, 黄雨燃, 汤烨铭, 李玲玲, 彭小林. 钢渣矿化捕集CO2化学路径研究进展[J]. 冶金工程, 2025, 12(3): 150-159. https://doi.org/10.12677/meng.2025.123019

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