Serik Aigerim, Idrissov Nurlan, Baratov Aibol, Dikov Alexey, Kislitsin Sergey, Daulbayev Chingis, Kuspanov Zhengisbek
Department of Materials Science, Nanotechnology and Engineering Physics, Satbayev University, Almaty 050032, Kazakhstan.
Institute of Nuclear Physics, Almaty 050032, Kazakhstan.
Molecules. 2024 Oct 11;29(20):4824. doi: 10.3390/molecules29204824.
Electrospun fiber-based photocatalysts demonstrate significant potential in addressing global environmental and energy challenges, primarily due to their high specific surface areas and unique properties. This review examines recent advances in the application of these materials in photocatalytic processes, with a particular focus on water splitting and hydrogen production. The principles of the electrospun method are described in detail, along with the operating parameters, material characteristics, and environmental conditions that affect the fiber formation. Additionally, the review discusses the challenges, advantages, and future prospects of photocatalysts incorporating carbon materials, metals, semiconductors, and hybrid structures with improved performance. These materials have the potential to significantly improve the efficiency of hydrogen energy production, water purification, and CO recovery, highlighting their importance in engineering sciences.
基于电纺纤维的光催化剂在应对全球环境和能源挑战方面展现出巨大潜力,这主要归功于其高比表面积和独特性能。本综述考察了这些材料在光催化过程中应用的最新进展,尤其关注水分解和制氢。详细描述了电纺方法的原理,以及影响纤维形成的操作参数、材料特性和环境条件。此外,该综述还讨论了包含碳材料、金属、半导体以及具有改进性能的混合结构的光催化剂所面临的挑战、优势和未来前景。这些材料有潜力显著提高氢能生产、水净化和一氧化碳回收的效率,凸显了它们在工程科学中的重要性。