椰棕叶粉吸附溴化阻燃剂4-二溴联苯醚(BDE-3)的动力学研究

N. A. Yasid, M. Halmi, M. Shukor
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摘要

膜分离、离子置换、沉淀、转化和生物吸附等方法是污染物控制的有效方法。生物吸附具有所有这些技术特点,包括低操作成本,在小体积下非常有效地解毒,最小的去除成分和营养需求,以及细菌修复,这仅限于重金属和其他有毒物质的存在。采用伪1、伪2和Elovich模型对椰叶粉中BDE-3的生物吸附进行分析,并采用非线性回归进行拟合。基于均方根误差(RMSE)、调整后的决定系数(adjR2)、偏差因子(BF)、精度因子(AF)、修正后的Akaike信息准则(AICc)、贝叶斯信息准则(BIC)和hannan - Quinn信息准则(HQC)的统计分析表明,伪二阶模型是最佳模型。使用Pseudo-2nd顺序模型动力学分析了平衡的价值为0.01 g / L的吸附剂吸附能力的量化宽松政策488.16毫克g1从463.68到512.64(95%置信区间)和一个值的Pseudo-2nd-order速率常数,k2为0.00019(95%置信区间从0.00010到0.00027),而0.002 g / L的平衡吸附能力量化宽松吸附剂2403.61毫克的g - 1从2313.99到2493.22(95%置信区间)级和Pseudo-2nd-order速率常数的值,K2为0.000043(95%置信区间为0.000027至0.000059)。这些计算值对于设计有效的吸附实验和了解所开发系统的局限性具有重要意义。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Kinetic Studies on the Biosorption of the Brominated Flame Retardant 4-Dibromodiphenyl ether (BDE-3) using Coconut Palm Leaf Powders
Methods such as membrane isolation, ion replacements, precipitation, transformation and biosorption are proven approaches to contaminant control. Biosorption has all of these technological features including low operating costs, very efficient detoxifying of toxicities at low volumes, minimal amounts of removal components and nutrient requirement, as well as bacterial remediation, which are limited to the presence of heavy metals and other toxicants. The biosorption of BDE-3 on coconut leaves powder on the biosorption of BDE-3 from coconut leaves powder were analyzed using three models—pseudo-1st, pseudo-2nd and Elovich, and fitted using non-linear regression. Statistical analysis based on root-mean-square error (RMSE), adjusted coefficient of determination (adjR2), bias factor (BF), accuracy factor (AF), corrected AICc (Akaike Information Criterion), Bayesian Information Criterion (BIC) and Hannan–Quinn information criterion (HQC) showed that the Pseudo-2nd order model is the best model. Kinetic analysis using the Pseudo-2nd order model gave a value of equilibrium sorption capacity qe for 0.01 g per L adsorbent of 488.16 mg g-1 (95% confidence interval from 463.68 to 512.64) and a value of the Pseudo-2nd-order rate constant, k2 of 0.00019 (95% confidence interval from 0.00010 to 0.00027) while the equilibrium sorption capacity qe for 0.002 g per L adsorbent of 2403.61 mg g-1 (95% confidence interval from 2313.99 to 2493.22) and a value of the Pseudo-2nd-order rate constant, k2 of 0.000043 (95% confidence interval from 0.000027 to 0.000059). These calculated values will be very useful in designing effective sorption experiment and understanding the limitations of the system developed.
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