Synergy of visible-light responsive photocatalytic materials and device engineering for energy and environment: Minireview on hydrogen production and water decontamination

Pablo Jiménez-Calvo
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Abstract

Accelerated advances in photocatalysis demand alignment with a well-defined Technology Readiness Levels (TRLs) roadmap to overcome bottlenecks and attain TRLs of 3 or beyond. This minireview highlights the key components for the development of device technology for photocatalytic hydrogen production, focusing on visible-light responsive catalysts and lab-scale setups. Two main aspects are critically discussed: modifications in semiconductor-based materials and progress in device engineering design. In the first section, the emphasis is on two specific energy materials: visible-light active carbon nitrides (CN) and the established benchmark titanium dioxide (TiO2). Examples of both CN and TiO2 modified by heteroatom doping, semiconductor heterojunction, metal Schottky junction, pre- and post-thermal treatments are showcased. Furthermore, Imogolite nanotubes are introduced as evolving 1D nanostructured nanoreactors for energetic photoelectrocatalysis. In the second section, the emphasis is on two types of laboratory batch photoreactors tailored for hydrogen production. Their main features are critically discussed in terms of their impact on the overall photonic, heat, and mass profiles. Moreover, a continuous flow water disinfection system is introduced as promising environmental technology. The objective to showcase these devices is to underscore the significance of advancing TRLs from 3 to 4–6. A few perspectives, routes, and challenges on visible-light absorbers and photoreactors devices are stated. Research trends are included to stay update with the latest advances in engineering and materials, specifically polyheptazine imides, computational modeling, machine learning, biomass conversion, single-atom catalysis, operando characterization, and the use of sea and wastewater for solar liquid fuels. This mini-review succinctly updates experts and non-experts on the author's recent works.

可见光响应光催化材料和设备工程在能源和环境领域的协同作用:制氢和水净化微型视图
光催化技术的加速发展要求与明确的技术就绪水平(TRLs)路线图保持一致,以克服瓶颈并达到 TRLs 3 或更高水平。本微型综述重点介绍了光催化制氢设备技术开发的关键要素,重点关注可见光响应催化剂和实验室规模装置。主要从两个方面进行了批判性讨论:半导体材料的改良和设备工程设计的进展。第一部分的重点是两种特殊的能源材料:可见光活性氮化碳(CN)和公认的基准二氧化钛(TiO2)。展示了通过杂原子掺杂、半导体异质结、金属肖特基结、热前和热后处理对碳氮化合物和二氧化钛进行改性的实例。此外,还介绍了用于高能光电催化的不断演化的一维纳米结构纳米反应器 Imogolite 纳米管。第二部分的重点是两种为制氢量身定制的实验室批量光反应器。根据其对整体光子、热量和质量曲线的影响,对其主要特征进行了批判性讨论。此外,还介绍了一种连续流水消毒系统,这是一种很有前途的环保技术。展示这些设备的目的是强调将 TRL 从 3 级提升到 4-6 级的重要意义。报告阐述了可见光吸收器和光反应器设备的一些观点、路线和挑战。研究趋势包括工程和材料领域的最新进展,特别是聚庚嗪亚胺、计算建模、机器学习、生物质转化、单原子催化、操作表征以及利用海洋和废水制造太阳能液体燃料。这篇微型综述简明扼要地向专家和非专家介绍了作者的最新研究成果。
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