Electrocatalytic conversion of methane: Recent progress and future prospects

Linghui Yan , Liangliang Jiang , Chao Qian , Shaodong Zhou
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引用次数: 0

Abstract

Methane has gained significant attention due to its abundant reserves and notable greenhouse effect. Electrocatalytic conversion of methane is an efficient and green pathway proceeding under mild conditions. However, the low solubility of methane in aqueous electrolytes imposes mass transfer limitations, leading to low current densities in electrocatalytic reactions and hindering large-scale production. This paper discusses the recent progress in quite a few aspects of electrocatalytic conversion of methane. Firstly, the reaction mechanisms involved in methane electrocatalysis are summarized, including dehydrogenation and C–H bond cleavage mediated by the active species. Next, we discuss how to promote electrochemical methane conversion regarding both the reaction process and mass transfer from the perspective of chemical engineering. Considerable efforts have been done to enhance the reaction process, including developing efficient electrocatalysts and devices. Meanwhile, the enhancement of transport processes via, e.g. improving the solubility of methane and modification on the transport area and distance, also facilitates more efficient methane conversion. Finally, an outlook on future development challenges is provided.

Abstract Image

甲烷的电催化转化:最新进展与未来展望
甲烷因其丰富的储量和显著的温室效应而备受关注。甲烷的电催化转化是一种在温和条件下进行的高效绿色途径。然而,甲烷在水性电解质中的低溶解度造成了传质限制,导致电催化反应的电流密度较低,阻碍了大规模生产。本文讨论了甲烷电催化转化在多个方面的最新进展。首先,总结了甲烷电催化的反应机理,包括活性物种介导的脱氢和 C-H 键裂解。接下来,我们从化学工程的角度,从反应过程和传质两个方面探讨了如何促进电化学甲烷转化。人们已经为改善反应过程做出了大量努力,包括开发高效的电催化剂和装置。同时,通过提高甲烷的溶解度、改变传输面积和传输距离等方法来改进传输过程,也有助于提高甲烷转化的效率。最后,还对未来的发展挑战进行了展望。
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CiteScore
7.90
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