DEGRADATION OF TETRACYCLINE BY FLOATING PHOTOCATALYST TiO2/Ni-COCONUT FIBER

Lavena Imelda Putri, Deri Agustiawan, Didiek Sugandi, Khaizurani Arfida, Mardhatilla, Nelly Wahyuni
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Abstract

The photocatalyst process involves light (photons) as an energy source and catalysts such as TiO2 to accelerate the reaction. Efforts are made to reduce the band gap energy of TiO2 by shifting the absorption towards visible light using metal cation doping, such as Ni2+, and they can float on the surface with coconut fiber. XRD characteristics with TiO2 diffractogram experienced a 2θ shift as an indication that Ni has entered the TiO2 structure and seen some peaks decreased in intensity after being embedded with coconut fiber as an indication that TiO2/Ni has successfully attached to the fiber. The band gap energy on TiO2 is 3.21 eV with a wavelength of 386.5 nm in UV light. TiO2/Ni-coconut fiber experienced a shift in band gap energy to 3.09 eV with a wavelength of 400.9 nm, which is in visible light. This indicates that Ni has successfully entered the TiO2 structure. The TiO2/Ni catalyst embraced with coconut fiber has a higher degradation activity than the catalyst without an embrainer, with a percent degradation of 28.66% for 120 minutes of irradiation. This is influenced by the amount of light that can be absorbed during the photocatalysis process.
漂浮光催化 TiO2/Ni-COCONUT 纤维对四氯乙烯的降解作用
光催化剂过程涉及作为能源的光(光子)和加速反应的催化剂(如二氧化钛)。人们努力降低 TiO2 的带隙能,利用金属阳离子(如 Ni2+)的掺杂使其吸收转向可见光,它们可以漂浮在椰子纤维的表面。TiO2 衍射图的 XRD 特性出现了 2θ 的移动,表明 Ni 已进入 TiO2 结构中,而且在嵌入椰子纤维后,一些峰的强度降低,表明 TiO2/Ni 已成功附着在纤维上。TiO2 的带隙能为 3.21 eV,紫外光波长为 386.5 nm。TiO2/Ni 椰子纤维的带隙能变为 3.09 eV,波长为 400.9 nm(可见光)。这表明镍已成功进入 TiO2 结构。使用椰子纤维包覆的 TiO2/Ni 催化剂比不使用包覆剂的催化剂具有更高的降解活性,辐照 120 分钟的降解率为 28.66%。这受到光催化过程中可吸收光量的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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