椰壳废活性炭吸附酸性矿山废水中铜、锰金属的研究

L. Ni`mah, M. Mahfud, S. Juliastuti
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引用次数: 0

摘要

摘要。本研究以椰壳炭为原料制备活性炭,并考察其在酸性矿山废水中吸附金属的应用;研究活化剂的种类;确定椰壳活性炭降低Cu2+金属和Mn2+金属浓度的最佳质量(去除率);并确定吸附等温模型。根据研究结果,在20%的H3PO4化学活化条件下,椰壳炭可以制备活性炭。在活化前,在300℃的温度下加热2小时制成。对酸性矿山废水中金属的吸附效果最好的活性炭质量为4 g,对铜金属的去除率为57.62%,对锰金属的去除率为91.37%。采用Langmuir和Freundlich等温线方程分析了浓度对吸附量的影响。采用Langmuir吸附锰金属方程得到最大吸附量(qmax)为15.16 mg/g;KL=73.09 mol/L, R2=0.9568。同时,对Cu金属的最大吸附量(qmax)=4.73 mg/g;KL=73.14 mol/L, R2= 0.9304。在Freundlich方程中,对金属锰的吸附,得到的KF=15.14 mol/L;R2=0.9129,而对铜金属的吸附,得到的KF=。72 mol / L;R2 = 0.9092。数据表明,吸附等温线曲线更接近Langmuir等温线模型(吸附发生在一层(单层)内)。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Study of Activated Carbon from Coconut Shell Waste to Adsorb Cu and Mn Metals in Acid Mine Drainage
Abstract. The purpose of this research is to make activated carbon from coconut shell carbon and examine its use in adsorbing metals in acid mine drainage; to study the types of activators; to determine the optimum mass for the efficiency of reducing the concentration of Cu2+ metal and Mn2+ metal (percent removal) using the activated carbon from coconut shell carbon; and to determine the adsorption of isothermal model. Based on the results of the study, it is concluded that activated carbon could be made from coconut shell carbon with 20% H3PO4 chemical activation. Before being activated, it was made by heating at a temperature of 300°C for 2 hours. The best activated carbon in terms of metals adsorption in acid mine drainage was in a mass of 4 grams with each percent removal of 57.62% for Cu metal and 91.37% for Mn metal. Data analysis of the effect of concentration on adsorption capacity used the Langmuir and Freundlich isotherm equations. The Langmuir equation for the adsorption of Mn metal obtained the maximum adsorption capacity (qmax) of 15.16 mg/g; KL=73.09 mol/L and R2=0.9568. Meanwhile, the adsorption of Cu metal obtained the maximum adsorption capacity (qmax)=4.73 mg/g; KL=73.14 mol/L and R2= 0.9304. In Freundlich's equation, on the adsorption of Mn metal, the resulting KF=15.14 mol/L; R2=0.9129, while on the adsorption of Cu metal, the resulting KF=.72 mol/L; R2= 0.9092. Based on the data, the adsorption isotherm curve more closely follows the Langmuir isotherm model (adsorption takes place in one layer (monolayer).
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