TiO2 Surface Hybridisation with Ag and CuO for Solar-Assisted Environmental Remediation and Sustainable Energy Applications

IF 3 4区 化学 Q3 CHEMISTRY, PHYSICAL
D. Dvoranová, K. Koci, L. Lajaunie, M. F. Edelmannova, M. P. Seabra, V. Brezová, R. Arenal, J. A. Labrincha, D. M. Tobaldi
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Abstract

Industrialisation has led to unprecedented levels of outdoor air pollution, posing a significant health risk to human beings. Consequently, there is an urgent need to replace fossil fuels with sustainable energy sources, thereby mitigating these risks and providing a safer outdoor and indoor environment. Titanium dioxide is a versatile transition metal oxide with applications ranging from energy conversion to environmental remediation. However, it faces limitations, particularly in its absorption spectrum and charge separation efficiency, and enhancing these properties remains a significant challenge. In this research work, we have decorated the surface of TiO2 hybridising it with noble-metal and/or noble-metal oxides (Ag and/or CuO) to improve the photocatalytic performances (monitoring the removal of nitrogen oxides and benzene, and hydrogen generation from water splitting) under simulated solar-light irradiation. Our results showed that titania modified with an Ag : Cu molar ratio equal to 1 : 1, not only exhibited the most promising performance in terms of nitrogen oxides and benzene removal, it was the optimum amount for the light-induced generation of hydrogen from water splitting.

Abstract Image

TiO2与Ag和CuO表面杂化在太阳能辅助环境修复和可持续能源中的应用
工业化导致室外空气污染达到前所未有的程度,对人类健康构成重大威胁。因此,迫切需要用可持续能源取代化石燃料,从而减轻这些风险,并提供更安全的室外和室内环境。二氧化钛是一种用途广泛的过渡金属氧化物,其应用范围从能源转换到环境修复。然而,它面临着局限性,特别是在吸收光谱和电荷分离效率方面,提高这些性能仍然是一个重大的挑战。在本研究中,我们用贵金属和/或贵金属氧化物(Ag和/或CuO)杂化修饰TiO2表面,以提高其在模拟太阳光照下的光催化性能(监测氮氧化物和苯的去除,以及水裂解产氢)。结果表明,Ag: Cu摩尔比为1:1的改性二氧化钛,不仅在去除氮氧化物和苯方面表现出最理想的性能,而且是光诱导水裂解制氢的最佳用量。
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来源期刊
ChemPhotoChem
ChemPhotoChem Chemistry-Physical and Theoretical Chemistry
CiteScore
5.80
自引率
5.40%
发文量
165
期刊介绍: Light plays a crucial role in natural processes and leads to exciting phenomena in molecules and materials. ChemPhotoChem welcomes exceptional international research in the entire scope of pure and applied photochemistry, photobiology, and photophysics. Our thorough editorial practices aid us in publishing authoritative research fast. We support the photochemistry community to be a leading light in science. We understand the huge pressures the scientific community is facing every day and we want to support you. Chemistry Europe is an association of 16 chemical societies from 15 European countries. Run by chemists, for chemists—we evaluate, publish, disseminate, and amplify the scientific excellence of chemistry researchers from around the globe.
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