黑金与光的协同作用:生物炭-光催化一体化绿色修复综合分析

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摘要

生物炭是一种多孔、高比表面积、富含黑碳的产品,为替代传统木炭提供了一种具有成本效益且环保的选择。然而,其特殊的结构和有限的生物降解性为其广泛应用带来了挑战。光催化被认为是利用太阳能并将其转化为太阳能燃料的替代方法。有趣的是,基于纳米材料的光催化剂具有量身定制的能带特性和无毒特性、高比表面积、更高的稳定性和可调孔径,因其在不同应用领域的潜力而备受关注。因此,现有的基于生物炭的光催化系统(BBPs)研究旨在解决不同的环境问题。有趣的是,BBPs 具有优异的导电性、多功能基团、大表面积和多表面活性位点等优点,可促进高电荷迁移率、电子贮存、优异的电荷分离和小带隙。本综述全面概述了 BBPs 的发展,包括合成方法和特性。BBPs 的融合可用于二氧化碳转化、光催化 H2 生成、二氧化碳还原、污染物、染料和药物降解。虽然 BBPs 的相互融合具有潜在的益处,但当加入改性光催化剂时,其有效性可能会受到影响,这可能会对载流子的生成效率和整体性能产生负面影响。因此,BBPs 的物理性质、有效性、长期稳定性和可重复使用性仍有进一步研究的空间。
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Synergizing black gold and light: A comprehensive analysis of biochar-photocatalysis integration for green remediation
Biochar is a porous, high-surface-area, black carbon-rich product that offers a cost-effective and environmentally friendly option to replace conventional charcoal. However, its specific structure and limited biodegradability pose challenges for its widespread applications. Photocatalysis is suggested as an alternative approach to harness solar energy and transform it into solar fuels. Interestingly, nanomaterials-based photocatalysts with tailored energy band properties and non-toxic characteristics, high surface areas, enhanced stability, and tunable pore sizes, have gained attention for their potential in diverse applications. Therefore, existing research on biochar-based photocatalysis systems (BBPs) aims to address different environmental issues. Interestingly, BBPs offer benefits such as excellent electrical conductivity, versatile functional groups, large surface area, and multiple surface-active sites, promoting high charge mobility, electron reservoir, superior charge separation, and small bandgap. This review provides a comprehensive overview of BBPs developments, including synthesis methods and properties. The fusion of BBPs is used in CO2 conversion, photocatalytic H2 generation, CO2 reduction, pollutants, dyes, and pharmaceutical degradation. Although the intermarriage of BBPs has potential benefits, their effectiveness may be compromised when modified photocatalysts are incorporated, which may negatively influence carrier generation efficiency and overall performance. Therefore, there is empty room for further research on their physical properties, effectiveness, long-term stability, and reusability of BBPs.
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