Photodegradation efficiency of methyl orange and Alizarin Red S in waste water using poly(azomethine)/TiO2 nanocomposite

S. Pradeeba, K. Sampath
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引用次数: 3

Abstract

The growth of a country entirely depends upon the industrialization expansion and agricultural production. Such industrial expansion also results ultimately in the accumulation of pollutants to a larger extend particularly in all segments of the environment. Among them, water pollution caused by textile dye industries contaminates the entire irrigational water stream. Hence it has become a challenging role for the technocrats and material science researchers to find an alternate solution to minimize the extent of pollution caused. Among many Conventional methods AOP (Advanced Oxidation Process) was chosen as an alternative method to treat polluted water. The aim of the present research work is to synthesize an azomethine polymer (PAZ) through polycondensation polymerization technique, semiconductor nanoparticles such as TiO2 through simple precipitation methodology and composite materials constitute of synthesized nanoparticles in polymeric resin such as TiO2 doped PAZ (PNT) through Ultrasonication method. The structural characterisation was justified using FTIR, XRD, EDAX TEM, and UV-DRS studies. The synthesized catalytic materials were used for the photodegradation of dyes such as Methyl Orange (MO) and Alizarin Red S (ARS). The parameters influencing the photodegradation of the dyes such as effect of initial dye solution concentration and period of contact required for the maximum dye removal were analyzed. The photocatalyic nature of the semiconductor nanomaterials and polymeric nanocomposite obeyed the application of Langmuir-Hinshellwood (L-H) kinetic model. The synthesized catalyst materials were found to be stable even upto 5 cycles without losing its catalytic nature.The growth of a country entirely depends upon the industrialization expansion and agricultural production. Such industrial expansion also results ultimately in the accumulation of pollutants to a larger extend particularly in all segments of the environment. Among them, water pollution caused by textile dye industries contaminates the entire irrigational water stream. Hence it has become a challenging role for the technocrats and material science researchers to find an alternate solution to minimize the extent of pollution caused. Among many Conventional methods AOP (Advanced Oxidation Process) was chosen as an alternative method to treat polluted water. The aim of the present research work is to synthesize an azomethine polymer (PAZ) through polycondensation polymerization technique, semiconductor nanoparticles such as TiO2 through simple precipitation methodology and composite materials constitute of synthesized nanoparticles in polymeric resin such as TiO2 doped PAZ (PNT) through Ultrasonication method...
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聚亚甲胺/TiO2纳米复合材料对废水中甲基橙和茜素红S的光降解效率
一个国家的发展完全依靠工业化的扩张和农业生产。这种工业扩张最终也导致污染物在更大范围内积聚,特别是在环境的所有部门。其中,纺织染料工业造成的水污染污染了整个灌溉水流。因此,对于技术专家和材料科学研究人员来说,找到一种替代的解决方案来最大限度地减少污染已经成为一项具有挑战性的任务。在众多传统方法中,AOP(高级氧化法)被选为处理污水的替代方法。本研究工作的目的是通过缩聚聚合技术合成一种亚甲基聚合物(PAZ),通过简单沉淀法合成TiO2等半导体纳米粒子,通过超声波法在TiO2掺杂PAZ (PNT)等聚合物树脂中合成纳米粒子构成复合材料。通过FTIR, XRD, EDAX TEM和UV-DRS研究证实了结构表征。合成的催化材料用于甲基橙(MO)和茜素红S (ARS)等染料的光降解。分析了影响染料光降解的参数,如初始染料溶液浓度和最大去除率所需的接触时间。半导体纳米材料和高分子纳米复合材料的光催化性质符合Langmuir-Hinshellwood (L-H)动力学模型的应用。实验结果表明,合成的催化剂材料在5次循环中仍保持稳定,且不失去催化性能。一个国家的发展完全依靠工业化的扩张和农业生产。这种工业扩张最终也导致污染物在更大范围内积聚,特别是在环境的所有部门。其中,纺织染料工业造成的水污染污染了整个灌溉水流。因此,对于技术专家和材料科学研究人员来说,找到一种替代的解决方案来最大限度地减少污染已经成为一项具有挑战性的任务。在众多传统方法中,AOP(高级氧化法)被选为处理污水的替代方法。本研究工作的目的是通过缩聚聚合技术合成一种亚甲基聚合物(PAZ),通过简单沉淀法合成TiO2等半导体纳米粒子,通过超声波法在TiO2掺杂PAZ (PNT)等聚合物树脂中合成纳米粒子构成复合材料。
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