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The effects of magnetization process on methylene blue removal using magnetically modified orange peel 磁化过程对磁性改性橙皮去除亚甲基蓝的影响
Pub Date : 2022-01-02 DOI: 10.37934/progee.17.1.116
Mohamad Huzair Munawer, Peck Loo Kiew, Wei Ming Yeoh
Whilst adsorption process is the preferred method of purifying wastewater due to its benefits, problems with the recovery of spent adsorbents are still prevalent in wastewater treatment technology. The use of magnetized biomass-based adsorbents (biosorbents) to ease the regeneration process would be a novel approach to overcome this obstacle. The magnetization of orange peel adsorbent involves a series of preparation stages. In this context, there are several parameters that may affect the magnetization of orange peel (OP) such as the ratio between FeCl3•6H2O and FeCl2•4H2O, mass of untreated orange peel (UOP), volume of NH3 solution, magnetization temperature and magnetization period. In this study, Fractional Factorial Design (FFD) was adopted to identify the significant parameters affecting two different responses namely the success of magnetization process and methylene blue (MB) dye removal. Based on the ANoVA results, the significant parameters affecting the success of the magnetization process were magnetization temperature, interaction between ratio of FeCl2:FeCl3 and volume of ammonia, and mass of OP with duration of mixing. Whereas the significant parameters affecting the MB dye removal were all five of the individual parameters, along with the interaction of amount of OP with the other four parameters, interaction between volume of ammonia with duration of mixing and with ratio of FeCl2:FeCl3, interaction between duration of mixing with temperature and ratio of FeCl2:FeCl3, and interaction between temperature and ratio of FeCl2:FeCl3. The highest recorded MB removal was 89.18%, while the lowest recorded MB removal was 38.76%. The regeneration study also showed that magnetized orange peel could be regenerated at least six times without having a significant reduction in adsorption capacity. The major functional groups of magnetized orange peel before adsorption, after adsorption and after regeneration were all similar, indicating that the spent adsorbent could be regenerated.
虽然吸附法因其优点而成为污水净化的首选方法,但在废水处理技术中,废吸附剂的回收问题仍然普遍存在。利用磁化生物质吸附剂(生物吸附剂)来缓解再生过程将是克服这一障碍的一种新方法。桔皮吸附剂的磁化过程涉及一系列制备阶段。在这种情况下,FeCl3•6H2O与FeCl2•4H2O的比值、未经处理的橙皮质量(UOP)、NH3溶液体积、磁化温度和磁化周期等参数可能影响橙皮(OP)的磁化强度。在本研究中,采用分数析因设计(FFD)来确定影响两种不同反应的重要参数,即磁化过程的成功和亚甲基蓝(MB)染料的去除。根据方差分析结果,影响磁化过程成功的重要参数是磁化温度、FeCl2:FeCl3比与氨体积的相互作用以及OP质量与混合时间的关系。而影响MB染料去除率的主要参数是这5个单独参数,以及OP用量与其他4个参数的相互作用、氨体积与混合时间和FeCl2:FeCl3比的相互作用、混合时间与FeCl2:FeCl3比的相互作用、温度与FeCl2:FeCl3比的相互作用。最高记录的MB去除率为89.18%,最低记录的MB去除率为38.76%。再生研究还表明,磁化后的橙皮可以再生至少六次,而不会显著降低吸附容量。磁化后的桔皮在吸附前、吸附后和再生后的主要官能团都相似,说明废吸附剂是可以再生的。
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Progress in Energy and Environment
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