College of Environmental Science and Engineering, Hunan University, Changsha, 410082, P. R. China.
Key Laboratory of Environmental Biology and Pollution Control (Hunan University), Ministry of Education, Changsha, 410082, P. R. China.
Small. 2019 Jun;15(23):e1901008. doi: 10.1002/smll.201901008. Epub 2019 Apr 10.
Highly active photocatalysts driving chemical reactions are of paramount importance toward renewable energy substitutes and environmental protection. As a fascinating Aurivillius phase material, Bi MoO has been the hotspot in photocatalytic applications due to its visible light absorption, nontoxicity, low cost, and high chemical durability. However, pure Bi MoO suffers from low efficiency in separating photogenerated carriers, small surface area, and poor quantum yield, resulting in low photocatalytic activity. Various strategies, such as morphology control, doping/defect-introduction, metal deposition, semiconductor combination, and surface modification with conjugative π structures, have been systematically explored to improve the photocatalytic activity of Bi MoO . To accelerate further developments of Bi MoO in the field of photocatalysis, this comprehensive Review endeavors to summarize recent research progress for the construction of highly efficient Bi MoO -based photocatalysts. Furthermore, benefiting from the enhanced photocatalytic activity of Bi MoO -based materials, various photocatalytic applications including water splitting, pollutant removal, and disinfection of bacteria, were introduced and critically reviewed. Finally, the current challenges and prospects of Bi MoO are pointed out. This comprehensive Review is expected to consolidate the existing fundamental theories of photocatalysis and pave a novel avenue to rationally design highly efficient Bi MoO -based photocatalysts for environmental pollution control and green energy development.
高效的光催化剂在推动化学反应方面至关重要,有助于替代可再生能源和环境保护。作为一种引人注目的钙钛矿相材料,BiMoO 由于其可见光吸收、无毒、低成本和高化学稳定性,在光催化应用中成为热点。然而,纯 BiMoO 存在光生载流子分离效率低、比表面积小、量子产率差等问题,导致其光催化活性较低。为了提高 BiMoO 的光催化活性,已经系统地探索了各种策略,如形貌控制、掺杂/缺陷引入、金属沉积、半导体组合和共轭π结构的表面修饰等。为了加速 BiMoO 在光催化领域的进一步发展,本综述旨在总结构建高效 BiMoO 基光催化剂的最新研究进展。此外,由于 BiMoO 基材料的光催化活性得到了增强,介绍和批判性地回顾了各种光催化应用,包括水分解、污染物去除和细菌消毒。最后,指出了 BiMoO 目前面临的挑战和展望。本综述有望整合光催化的现有基础理论,并为合理设计高效的 BiMoO 基光催化剂以控制环境污染和开发绿色能源开辟新途径。