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有色金属冶金废弃物处置与硅化铁生产及锌蒸馏的建模

Modeling of Non-Ferrous Metallurgy Waste Disposal with the Production of Iron Silicides and Zinc Distillation.

作者信息

Kolesnikov Alexandr, Fediuk Roman, Amran Mugahed, Klyuev Sergey, Klyuev Alexander, Volokitina Irina, Naukenova Aigul, Shapalov Shermakhan, Utelbayeva Akmaral, Kolesnikova Olga, Bazarkhankyzy Aidana

机构信息

Department of "Life Safety and Environmental Protection", M. Auezov South Kazakhstan University, Building B, Av. Tauke Khan, 5, Shymkent 160012, Kazakhstan.

Polytechnic Institute, Far Eastern Federal University, 690922 Vladivostok, Russia.

出版信息

Materials (Basel). 2022 Mar 30;15(7):2542. doi: 10.3390/ma15072542.

DOI:10.3390/ma15072542
PMID:35407873
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9000194/
Abstract

This paper presents studies on the possibility of utilization of technogenic waste from the metallurgical industry by the method of complex processing in order to reduce the anthropogenic load on the environment of the region with the example of the zinc silicate-magnetite-carbon system. The selected sample of clinker dump from welting was subjected to chemical and scanning electron microscopic analyses and thermodynamic modeling. Thermodynamic studies were carried out in the temperature range 1600-2200 K and pressure = 0.1 MPa, modeling the process of electric melting of clinker from welting in an arc furnace using the software application Astra 4 developed at the Bauman Moscow State Technical University (Moscow, Russian Federation). As a result of the thermodynamic modeling, the optimal temperature range was established, which was 1800-1900 K. Thermodynamic studies established that it is possible to drive away zinc from the system under study by 99-100% in the entire temperature range under study. The maximum degree of silicon extraction (α) in the alloy is up to 69.44% at T = 1900 K, and the degree of iron extraction (α) in the alloy is up to 99.996%. In particular, it was determined and proved that clinker waste from welting can act as a secondary technogenic raw material when it is processed as a mono mixture to produce iron silicides with a silicon content of 18 to 28%.

摘要

本文以硅酸锌 - 磁铁矿 - 碳体系为例,介绍了通过复杂加工方法利用冶金工业技术废物以减轻该地区环境人为负荷的可能性研究。对选定的来自熔炼的熟料堆场样品进行了化学和扫描电子显微镜分析以及热力学建模。热力学研究在1600 - 2200 K的温度范围和0.1 MPa的压力下进行,使用莫斯科国立鲍曼技术大学(俄罗斯联邦莫斯科)开发的软件应用程序Astra 4对电弧炉中熔炼熟料的电熔过程进行建模。热力学建模的结果确定了最佳温度范围为1800 - 1900 K。热力学研究表明,在所研究的整个温度范围内,可以将锌从所研究的体系中去除99 - 100%。在T = 1900 K时,合金中硅的最大提取率(α)高达69.44%,合金中铁的提取率(α)高达99.996%。特别是,已确定并证明,当将来自熔炼的熟料废物作为单一混合物进行加工以生产硅含量为18%至28%的硅化铁时,它可以作为二次技术原料。

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