从碳化 Na3VO4 溶液中逐步析出 NH4VO3 和 NaHCO3 的热力学模拟

IF 4.7 1区 材料科学 Q1 METALLURGY & METALLURGICAL ENGINEERING Transactions of Nonferrous Metals Society of China Pub Date : 2024-10-01 DOI:10.1016/S1003-6326(24)66615-X
Fan-cheng MENG , Yong-chao WANG , Xin CHAI , Ya-hui LIU , Li-na WANG , De-sheng CHEN
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引用次数: 0

摘要

通过热力学模拟,设计了一种通过调节 Na3VO4 溶液的二氧化碳碳化作用来逐步沉淀 NH4VO3 和 NaHCO3 的新工艺。首先,利用 Bromley-Zemaitis 活性系数模型,为含有钒酸盐和碳酸盐的水溶液建立了一个新的 V(V) 标示模型。随后,进行了热力学平衡计算,以阐明钒、碳、钠和杂质物种在常压或高压碳化过程中的行为。为确保钒产品的纯度和回收率,首先将 Na3VO4 溶液碳化至 pH 值为 9.3-9.4,然后加入 (NH4)2CO3 沉淀 NH4VO3。钒沉淀后,将溶液深度碳酸化至最终 pH 值 7.3-7.5 以沉淀 NaHCO3,剩余溶液循环用于溶解 Na3VO4 晶体。最后,验证实验表明,溶液中 99.1% 的钒和 91.4% 的钠分别以 NH4VO3 和 NaHCO3 的形式被回收。
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Thermodynamic simulation of stepwise precipitation of NH4VO3 and NaHCO3 from carbonating Na3VO4 solution
Thermodynamic simulation was conducted to design a new process of stepwise precipitating NH4VO3 and NaHCO3 from regulating the CO2 carbonation of Na3VO4 solution. Firstly, a new V(V) speciation model for the aqueous solution containing vanadate and carbonate is established by using the Bromley−Zemaitis activity coefficient model. Subsequently, thermodynamic equilibrium calculations are conducted to clarify the behavior of vanadium, carbon, sodium, and impurity species in atmospheric or high-pressure carbonation. To ensure the purity and recovery of vanadium products, Na3VO4 solution is initially carbonated to the pH of 9.3−9.4, followed by precipitating NH4VO3 by adding (NH4)2CO3. After vanadium precipitation, the solution is deeply carbonated to the final pH of 7.3−7.5 to precipitate NaHCO3, and the remaining solution is recycled to dissolve Na3VO4 crystals. Finally, verification experiments demonstrate that 99.1% of vanadium and 91.4% of sodium in the solution are recovered in the form of NH4VO3 and NaHCO3, respectively.
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来源期刊
CiteScore
7.40
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17.80%
发文量
8456
审稿时长
3.6 months
期刊介绍: The Transactions of Nonferrous Metals Society of China (Trans. Nonferrous Met. Soc. China), founded in 1991 and sponsored by The Nonferrous Metals Society of China, is published monthly now and mainly contains reports of original research which reflect the new progresses in the field of nonferrous metals science and technology, including mineral processing, extraction metallurgy, metallic materials and heat treatments, metal working, physical metallurgy, powder metallurgy, with the emphasis on fundamental science. It is the unique preeminent publication in English for scientists, engineers, under/post-graduates on the field of nonferrous metals industry. This journal is covered by many famous abstract/index systems and databases such as SCI Expanded, Ei Compendex Plus, INSPEC, CA, METADEX, AJ and JICST.
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