反相微乳剂在硫化铅锌浮选中的应用

IF 0.6 4区 材料科学 Q4 METALLURGY & METALLURGICAL ENGINEERING Russian Journal of Non-Ferrous Metals Pub Date : 2022-10-22 DOI:10.3103/S1067821222050030
V. I. Bragin, N. F. Usmanova, E. A. Burdakova, A. A. Kondratieva
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引用次数: 0

摘要

介绍了油包水型(即水滴悬浮在油相中)反相微乳液捕收剂在铅锌矿物浮选萃取中的应用研究结果。以铅锌精矿和铅锌矿石为初始浮选样品。铅精矿中方铅矿的含量为74.7%,锌精矿中闪锌矿的含量为78.7%。RME组成中的基本捕收剂是丁基黄药钾(PBX)和煤油。采用非离子表面活性剂(NSA)稳定RME。采用酪蛋白作为主要试剂的添加剂,消除了渗透压对RME制备的负面影响。酪蛋白转化为活性可溶性形式是用硫化钠进行的。反相微乳液粒径为12.38 nm。在浮选试验中,研究了RME、RME +发泡剂和丁基黄药钾+发泡剂为浮选矿浆提供药剂的方案。使用T-92试剂作为发泡剂。在RME组成和经典电源中,PBX的消耗为26g /t。实验室试验结果表明,以RME形式提供浮选剂的方法既提高了硫化铅和锌的浮选率,又提高了硫化铅和锌的泡沫回收率。在铅锌矿集体浮选循环中使用RME进行的试验表明,与传统试剂(捕收剂+起泡剂)相比,除浮选率提高外,总精矿中铅的提取率提高了10.8%,锌的提取率提高了38.5%。与硫化铅相比,RME对硫化锌的选择性有所提高。闪锌矿的浮选速率系数比方铅矿高7.8倍。在相同条件下,浸出液在总锌精矿中的浸出率为16.78%,在铅精矿中的浸出率为1.9%。
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Application of Reagents in the Form of a Reverse Microemulsion for the Flotation of Lead and Zinc Sulfides

The results of the studies on the use of collector reagents in the form of a reverse microemulsion (RME) of the water-in-oil type (i.e., water droplets are suspended in the oil phase) for the flotation extraction of lead and zinc minerals are presented. Lead and zinc concentrates and a lead–zinc ore are used as the initial samples for flotation. The concentration of galena in the lead concentrate is 74.7%, and the concentration of sphalerite in the zinc concentrate is 78.7%. Basic collector reagents in the composition of the RME are potassium butyl xanthate (PBX) and kerosene. A nonionic surfactant (NSA) is used to stabilize the RME. Casein is used as additives to the main reagents to eliminate the negative effect of osmotic pressure upon preparing the RME. The transformation of casein to the active soluble form is carried out using sodium sulfide. The particle size in the reverse microemulsion is 12.38 nm. The following options for supplying reagents to the flotation pulp are studied in flotation tests: RME, RME + foaming agent, and potassium butyl xanthate + foaming agent. A T-92 reagent is used as the foaming agent. The consumption of PBX in the composition of the RME and in the classical supply is 26 g/t. The results of laboratory tests show that the method of supplying flotation reagents in the form of an RME leads to an increase both in the flotation rate of lead and zinc sulfides and in their recovery into a foam product. Tests with the use of an RME in the collective flotation cycle of a lead–zinc ore show an increase in the extraction of lead into the total concentrate by 10.8% and zinc by 38.5% in comparison with the classical supply of reagents (collector + foaming agent) in addition to an increase in the flotation rate. An increased selectivity of the action of an RME in relation to zinc sulfides in comparison with lead sulfides is noted. The flotation rate coefficient of sphalerite is 7.8-fold higher when compared to galena. The gain in the extraction into the total zinc concentrate is also higher and is 16.78%, while the gain into the lead concentrate is 1.9% under the same conditions.

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来源期刊
Russian Journal of Non-Ferrous Metals
Russian Journal of Non-Ferrous Metals METALLURGY & METALLURGICAL ENGINEERING-
CiteScore
1.90
自引率
12.50%
发文量
59
审稿时长
3 months
期刊介绍: Russian Journal of Non-Ferrous Metals is a journal the main goal of which is to achieve new knowledge in the following topics: extraction metallurgy, hydro- and pirometallurgy, casting, plastic deformation, metallography and heat treatment, powder metallurgy and composites, self-propagating high-temperature synthesis, surface engineering and advanced protected coatings, environments, and energy capacity in non-ferrous metallurgy.
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