Photocatalytic degradation of azo dyes over MXene-based catalyst: Recent developments and future prospects

Carene Illahi , Wahyudi E.F. Hutabarat , Nadya Nurdini , Fainan Failamani , Grandprix T.M. Kadja
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Abstract

Dye-induced water pollution is a noteworthy environmental issue, mainly caused by industrial activities that utilize and release effluent-containing dyes, especially azo dyes. One frequently employed large-scale technique for removing dyes from water is photocatalysis degradation. The use of MXene-based catalysts as an advanced material holds promise in overcoming the limitations inherent in previous catalysts due to its expansive surface area and unique tunable properties. The potential of integrating MXene-based catalysts with nanoparticles and semiconductors offers a path to enhance photocatalytic efficiency, create composite materials, promote environmental sustainability, and drive innovations in water purification. Further developments in MXene, including its properties, functional groups, and active sites tailored to semiconductor compatibility, can maximize the capabilities of semiconductors. The rate of photocatalytic reactions stands to improve significantly due to MXene's high light absorption capacity and extensive nanoporous structure. Consequently, MXene-based catalysts in photocatalytic degradation hold the potential to contribute to a more sustainable environment, particularly in water treatment.

MXene 基催化剂对偶氮染料的光催化降解:最新进展与未来展望
染料引起的水污染是一个值得注意的环境问题,主要是由使用和排放含染料(尤其是偶氮染料)废水的工业活动造成的。光催化降解是一种常用的大规模去除水中染料的技术。由于 MXene 具有广阔的表面积和独特的可调特性,使用 MXene 催化剂作为先进材料有望克服以往催化剂固有的局限性。将 MXene 基催化剂与纳米颗粒和半导体相结合的潜力为提高光催化效率、创造复合材料、促进环境可持续性和推动水净化领域的创新提供了一条途径。MXene 的进一步发展,包括其特性、官能团和活性位点与半导体的兼容性,可以最大限度地发挥半导体的功能。由于 MXene 的高光吸收能力和广泛的纳米多孔结构,光催化反应的速率将显著提高。因此,以 MXene 为基础的光催化降解催化剂有望促进环境的可持续发展,特别是在水处理方面。
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