用于光降解环境污染物的可见光驱动微电机/纳米电机的研究进展

IF 3.5 Q3 ENGINEERING, ENVIRONMENTAL
Vanessa R. Ferreira and Manuel Azenha
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引用次数: 0

摘要

可见光驱动电机(Vis-LDM)通过其活性运动和光催化特性之间的协同作用,使有机污染物得到更有效的降解,从而在水净化过程中显示出巨大的潜力。本综述重点介绍了用于可持续缓解环境污染的 Vis-LDM 光催化剂的最新进展。创新包括采用混合结构和晶体材料的无燃料 Vis-LDM,以及水和葡萄糖等生物燃料替代品,但物流方面的挑战依然存在。木质素和纤维素纳米晶体等天然材料的使用促进了可持续发展,但也面临着能量转换效率方面的挑战。本文讨论了提高效率的策略,如掺杂和异质结的形成。此外,还回顾了在稳定性、重复使用和磁性恢复能力方面取得的进展。还探讨了集体行为和环境适应性,以提高催化效率。尽管取得了上述进展,但仍未找到解决这些局限性的最终方案。本综述还对未来的研究方向进行了展望,即需要解决可扩展性、成本效益和环境兼容性等问题。此外,对具有可编程路线和精确导航功能的 Vis-LDM 进行投资,可以提高其多功能性和精确性。针对有害污染物的选择性行为非常重要;分子印迹技术是一种潜在的解决方案。未来的研究还应侧重于实际测试和导航改进。要充分利用 Vis-LDM 在环境修复和全球环境健康方面的潜力,就必须克服这些挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Advancements in visible light-driven micro/nanomotors for photodegradation of environmental pollutants

Advancements in visible light-driven micro/nanomotors for photodegradation of environmental pollutants

Visible light-driven motors (Vis-LDMs) have shown significant potential for water decontamination processes through the synergistic interaction between their active movement and photocatalytic properties, enabling more efficient degradation of organic pollutants. This review highlights recent advances in Vis-LDMs photocatalysts for sustainable environmental pollution mitigation. Innovations include fuel-less Vis-LDMs with hybrid structures and crystalline materials, and biofuel alternatives like water and glucose, though logistical challenges persist. The use of natural materials like lignin and cellulose nanocrystals promotes sustainability but faces energy conversion efficiency challenges. Strategies to enhance efficiency, such as doping and heterojunction formation, are discussed. Advances in stability, reuse, and magnetic recovery capabilities are also reviewed. Collective behavior and environmental adaptability are explored to improve catalytic efficiency. Despite the presented advances, definitive solutions to these limitations have not yet been found. A perspective on the directions for future research is also included in this review, namely the need to resolve issues of scalability, cost-effectiveness, and environmental compatibility. Additionally, investing in Vis-LDMs with programmable routes and precise navigation can enhance versatility and accuracy. Selective behavior to target hazardous contaminants is important; the molecular imprinting technique being a potential solution. Future research should also focus on real-world testing and navigation improvements. Overcoming these challenges is essential to fully harness the potential of Vis-LDMs for environmental remediation and global environmental health.

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