基于碳化钨的改性硬质合金的原料

U. Ruziev, V. Guro, K. Sharipov, B.B. Kayumov, A. Niyazmatov
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摘要

JSC“Almalyk MMC”生产硬质合金产品,以自己的工业废料-浸出饼中的钨精矿为原料。另一个潜在资源是来自Ingichki矿床的钨矿。目标。已知原料的纯度和碳化物组分中晶粒生长抑制剂的存在影响了组织。研究硬质合金中杂质和合金成分对其硬度、耐磨性和组织的影响。研究对象为含钨原料样品、硬质合金合金成分钒、铼化合物及其改性样品“碳化钨-钴”型硬质合金样品。方法。控制其物理力学参数(洛氏硬度、相对耐磨性)、结构(EMPYREAN XDR、SEM-EDS EVO-MA Carl Zeiss Oxford instrument)、元素组成(ICP-Aligent 7500 IСP MS)。结果和讨论。安装。经钒、铼改性后的硬质合金与未改性的系列原始样品相比,硬度提高约3%,耐磨性提高90-100%。结论。钨酸酐的额外清洗导致耐磨性的增加:相对于未改性的碳化物,从38.5%(用5%铼改性的合金)到57.0%(一次清洗)和65.3%(三次清洗)(用5%铼改性的合金)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
RAW MATERIALS FOR MODIFIED HARD ALLOYS BASED ON TUNGSTEN CARBIDE
JSC "Almalyk MMC" produces products from hard alloys, using as a raw material tungsten concentrate from its own industrial waste - leaching cakes. Another potential resource is tungsten ore from the Ingichki deposit. Objective. It was known that the purity of the raw material and the presence of grain growth inhibitors in the carbide components affected the structure. It was of interest to evaluate the effect of impurities and alloying components of hard alloys on their hardness, wear resistance, and structure. The objects of study were samples of tungsten-containing raw materials, alloying components of hard alloys - compounds of vanadium, rhenium, samples modified by them - hard alloys of the "tungsten carbide - cobalt" type. Methodology. Their physical and mechanical parameters (Rockwell hardness, relative wear resistance), structure (EMPYREAN XDR, SEM-EDS EVO-MA Carl Zeiss Oxford Instrum), elemental composition (ICP-Aligent 7500 IСP MS) were controlled. Results and discussion. Installed. that the hard alloys modified with vanadium and rhenium turned out to be ≈ 3% harder and up to 90-100% more resistant to wear, compared to the serial original unmodified sample. Conclusion. Additional cleaning of tungsten anhydride led to an increase in wear resistance: from 38.5% (alloy “modified with 5% rhenium”, to 57.0% (with a single cleaning) and 65.3% (with three cleanings) of the alloy “modified with 5% rhenium with additional cleaning”, relative to unmodified carbide.
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