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光催化是实现净零排放目标的下一个绿色制氢技术吗?

Is Photocatalysis the Next Technology to Produce Green Hydrogen to Enable the Net Zero Emissions Goal?

作者信息

Isaacs Mark, Garcia-Navarro Julio, Ong Wee-Jun, Jiménez-Calvo Pablo

机构信息

Department of Chemistry University College London 20 Gower Street London WC1H 0AJ UK.

HarwellXPS Research Complex at Harwell Rutherford Appleton Lab Didcot OX11 0FA UK.

出版信息

Glob Chall. 2022 Dec 16;7(3):2200165. doi: 10.1002/gch2.202200165. eCollection 2023 Mar.

Abstract

Energy security concerns require novel greener and more sustainable processes, and Paris Agreement goals have put in motion several measures aligned with the 2050 roadmap strategies and net zero emission goals. Renewable energies are a promising alternative to existing infrastructures, with solar energy one of the most appealing due to its use of the overabundant natural source of energy. Photocatalysis as a simple heterogeneous surface catalytic reaction is well placed to enter the realm of scaling up processes for wide scale implementation. Inspired by natural photosynthesis, artificial water splitting's beauty lies in its simplicity, requiring only light, a catalyst, and water. The bottlenecks to producing a high volume of hydrogen  are several: Reactors with efficient photonic/mass/heat profiles, multifunctional efficient solar-driven catalysts, and proliferation of pilot devices. Three case studies, developed in Japan, Spain, and France are showcased to emphasize efforts on a pilot and large-scale examples. In order for solar-assisted photocatalytic H to mature as a solution, the aforementioned bottlenecks must be overcome for the field to advance its technology readiness level, assess the capital expenditure, and enter the market.

摘要

能源安全问题需要新颖、更绿色且更可持续的工艺,《巴黎协定》的目标已推动了多项与2050年路线图战略和净零排放目标相一致的措施。可再生能源是现有基础设施的一个有前景的替代方案,太阳能因其利用了丰富的自然能源而成为最具吸引力的能源之一。光催化作为一种简单的多相表面催化反应,非常适合进入扩大规模以广泛实施的领域。受自然光合作用的启发,人工水分解的美妙之处在于其简单性,只需要光、催化剂和水。大量生产氢气存在几个瓶颈:具有高效光子/质量/热分布的反应器、多功能高效太阳能驱动催化剂以及中试装置的推广。展示了在日本、西班牙和法国开展的三个案例研究,以强调在中试和大规模实例方面所做的努力。为了使太阳能辅助光催化制氢作为一种解决方案成熟起来,必须克服上述瓶颈,以便该领域提高其技术就绪水平、评估资本支出并进入市场。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/1cdb/10000254/72c6ecc4b611/GCH2-7-2200165-g003.jpg

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