{"title":"从垃圾到生物吸附剂:概述原料和己烷纯化杏仁壳镍(II)离子去除","authors":"Hasan Koçyiğit, Gülden Gök, Hakan Çelebi","doi":"10.1007/s13201-025-02520-3","DOIUrl":null,"url":null,"abstract":"<div><p>The main purpose of the experimental study is to examine Ni(II) biosorption capacities of raw (RAS) and hexane pretreated (HPAS) almond shells by applying them to wastewater. In the context of the study, batch experiments were conducted to investigate the influence of various parameters, including temperature, RAS and HPAS dosages, pH, and contact time, on the removal efficiency of Ni(II). FTIR and SEM–EDX analyses were performed to determine the functional groups and surface morphology of RAS and HPAS. Adsorption capacities were calculated using different isotherm and kinetic models with the obtained experimental data. It was determined that under optimum conditions (2 g RAS/HPAS, pH 5.87, 10 min, 20 °C), maximum removal efficiencies of Ni(II) for RAS and HPAS were 72% and 81.25%, respectively. The equilibrium adsorption fitted the Langmuir isotherm and pseudo-second-order kinetic. The optimum adsorption capacities for RAS and HPAS were found to be 3.60 and 5.67 mg/g, respectively. Four separate error functions were used to evaluate the suitability of isotherm and kinetic models under equilibrium conditions: MPSD, HYBRID, NSD, and ARE. The findings of the error analysis showed that the HYBRID functions were the smallest in all models. The thermodynamic parameters showed that the process was feasible and exothermic. Experimental results demonstrate that RAS and HPAS are economical and readily available adsorbents for the removal of Ni(II) from aqueous solution. 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The findings of the error analysis showed that the HYBRID functions were the smallest in all models. The thermodynamic parameters showed that the process was feasible and exothermic. Experimental results demonstrate that RAS and HPAS are economical and readily available adsorbents for the removal of Ni(II) from aqueous solution. 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引用次数: 0
摘要
实验研究的主要目的是通过将生杏仁壳(RAS)和己烷预处理杏仁壳(HPAS)应用于废水中,考察其对Ni(II)的生物吸附能力。在本研究的背景下,进行了批量实验,研究了温度、RAS和HPAS用量、pH和接触时间等参数对Ni(II)去除效率的影响。通过FTIR和SEM-EDX分析确定RAS和HPAS的官能团和表面形貌。用不同的等温线和动力学模型计算了吸附量。结果表明,在最佳条件(2 g RAS/HPAS, pH 5.87, 10 min, 20°C)下,RAS和HPAS对Ni(II)的最大去除率分别为72%和81.25%。平衡吸附符合Langmuir等温线和拟二级动力学。对RAS和HPAS的最佳吸附量分别为3.60和5.67 mg/g。采用MPSD、HYBRID、NSD和ARE四种不同的误差函数来评价等温线和动力学模型在平衡条件下的适用性。误差分析结果表明,HYBRID函数在所有模型中最小。热力学参数表明该工艺是可行的,是放热的。实验结果表明,RAS和HPAS是一种经济、易行的去除水中镍的吸附剂。我们还发现,在不需要相当昂贵的改性方法的情况下,它也能得到令人满意的去除Ni(II)的结果。
From garbage to biosorbent: overview raw and hexane purified almond shells for nickel (II) ions removal
The main purpose of the experimental study is to examine Ni(II) biosorption capacities of raw (RAS) and hexane pretreated (HPAS) almond shells by applying them to wastewater. In the context of the study, batch experiments were conducted to investigate the influence of various parameters, including temperature, RAS and HPAS dosages, pH, and contact time, on the removal efficiency of Ni(II). FTIR and SEM–EDX analyses were performed to determine the functional groups and surface morphology of RAS and HPAS. Adsorption capacities were calculated using different isotherm and kinetic models with the obtained experimental data. It was determined that under optimum conditions (2 g RAS/HPAS, pH 5.87, 10 min, 20 °C), maximum removal efficiencies of Ni(II) for RAS and HPAS were 72% and 81.25%, respectively. The equilibrium adsorption fitted the Langmuir isotherm and pseudo-second-order kinetic. The optimum adsorption capacities for RAS and HPAS were found to be 3.60 and 5.67 mg/g, respectively. Four separate error functions were used to evaluate the suitability of isotherm and kinetic models under equilibrium conditions: MPSD, HYBRID, NSD, and ARE. The findings of the error analysis showed that the HYBRID functions were the smallest in all models. The thermodynamic parameters showed that the process was feasible and exothermic. Experimental results demonstrate that RAS and HPAS are economical and readily available adsorbents for the removal of Ni(II) from aqueous solution. It was also found to give satisfactory results for the removal of Ni(II) without the need for rather expensive modified methods.