二氧化碳综合捕集与电化学升级研究进展

Wei Zhang , Yu Yang , Yunxin Li , Fengwang Li , Mingchuan Luo
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引用次数: 0

摘要

二氧化碳捕获和利用技术对于应对日益严重的气候变化至关重要。虽然捕获的CO2的电化学转化在过去几年中蓬勃发展,但CO2捕获技术相对成熟。典型的捕获介质包括碱性和胺溶液,以及多孔纳米材料。缩放CCU需要将初始捕获和后续转换过程有效集成到一个设备中,这通常被称为集成过程。近年来,这一方法取得了显著进展,推动了这一及时和全面的审查。我们首先比较了单独和集成CCU系统的经济方面。然后,我们讨论了传统上使用的单独CCU方法,并阐述了开发集成系统的动机。我们特别关注两种集成的CCU方法——捕获溶液的直接电解和双功能多孔电极的采用。我们还介绍了每种方法的工作机制和最新进展,以及对剩余挑战的全面讨论。最后,我们对CCU推进这一综合方法进行了全面评估和展望。
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Recent progress on integrated CO2 capture and electrochemical upgrading

Technologies for CO2 capture and utilization (CCU) are crucial for combating ever-increasing climate change. While the electrochemical conversion of captured CO2 has flourished in the past few years, CO2 capturing techniques are relatively mature. Typical capturing media include alkaline and amine solutions, as well as porous nanomaterials. Scaling CCU requires efficient integration of initial capture and subsequent conversion processes into one device, which is typically referred to as an integrated process. This approach has witnessed notable progress in recent years, which motivates this timely and comprehensive review. We first compare the economic aspects of separate and integrated CCU systems. Then, we discuss the separate CCU approaches that have traditionally been employed and expound on the motivations to develop an integrated system. We focus specifically on two integrated CCU approaches – direct electrolysis of capture solutions and the adoption of bifunctional porous electrodes. We also introduce the working mechanism of each approach and the latest developments, along with a comprehensive discussion on remaining challenges. To conclude, we provide an overall evaluation and outlook on advancing this integrated approach for CCU.

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