Effect of Time Stepping in the Filtering Process on the Synthesis of Nickel Sulfate Powder from Blast Furnace Ferronickel

Aprilio Muhammad Fulesa, Y. Setiyorini, F. Abdul, S. Pintowantoro
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Abstract

The demand for nickel manganese cobalt (NMC)-type batteries is increasing along with the need for global electric vehicles, such as electric cars. Nickel used in the manufacture of NMC batteries is Nickel (II) sulfate hexahydrate (NiSO4.6H2O). Therefore, it is necessary to study how to synthesize nickel sulfate powder from blast furnace ferronickel to provide an alternative source of nickel sulfate and increase the added value of blast furnace ferronickel products. This study aims to analyze the effect of variations in the time difference of stepped filtering sludge on the precipitated filtrate. This study uses a nickel source from the ferronickel derived from the sintering and smelting process using a Mini Blast Furnace to synthesize nickel sulfate. First, the ferronickel was ground and sieved to pass 50 mesh size. Then, the leaching process was performed using a mixture of 120 mL H2SO4 (2M) and 30 mL H2O2 (30%) with a stirring speed of 200 rpm for 6 h for each 2 g ferronickel. Next, the precipitation process was carried out using CaCO3 powder to pH 3.01 at 90 °C. The precipitation solution was held at 90 °C for 24 h, and stepped filtering of the precipitate formed with variations of 2, 4, 6, and 8 h (the total time is kept the same, i.e., 24 h). The crystallization results were then washed and dried at 70 °C for 2 h. Based on X-Ray Fluorescence (XRF), the best results were obtained in stepped filtering variation every 8 h with 50.23% Ni content and 90.5% Ni separation efficiency. Based on XRD, the nickel sulfate powder product has the compound NiSO4.6H2O. In addition, nickel sulfate products also contain CoSO4, one of the compounds needed to manufacture NMC batteries. However, nickel sulfate powder products still contain impurity compounds like FeSO4 and CaSO4.
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过滤过程中时间步进对高炉镍铁合成硫酸镍粉的影响
随着全球电动汽车(如电动汽车)的需求,对镍锰钴(NMC)型电池的需求也在增加。NMC电池制造中使用的镍是六水合硫酸镍(II)(NiSO4.6H2O)。因此,有必要研究如何从高炉镍铁中合成硫酸镍粉末,以提供硫酸镍的替代来源,提高高炉镍铁产品的附加值。本研究旨在分析分级过滤污泥时间差的变化对沉淀滤液的影响。本研究使用来自烧结和冶炼过程的镍铁的镍源,使用微型高炉合成硫酸镍。首先,将镍铁研磨并过筛以通过50目尺寸。然后,使用120mL H2SO4(2M)和30mL H2O2(30%)的混合物,以200rpm的搅拌速度对每2g镍铁进行6小时的浸出过程。接下来,使用CaCO3粉末在90°C下进行沉淀过程,使pH达到3.01。将沉淀溶液在90°C下保持24小时,并逐步过滤沉淀,形成2、4、6和8小时的变化(总时间保持不变,即24小时)。然后将结晶结果洗涤并在70°C下干燥2小时。基于X射线荧光(XRF),在每8小时的分级过滤变化中获得最佳结果,镍含量为50.23%,镍分离效率为90.5%。基于XRD,硫酸镍粉末产品含有化合物NiSO4.6H2O。此外,硫酸镍产品还含有制造NMC电池所需的化合物之一CoSO4。然而,硫酸镍粉末产品仍然含有杂质化合物,如FeSO4和CaSO4。
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来源期刊
Applied Science and Engineering Progress
Applied Science and Engineering Progress Engineering-Engineering (all)
CiteScore
4.70
自引率
0.00%
发文量
56
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