Aqueous electrochemistry: The toolbox for life's emergence from redox disequilibria

IF 2.9 Q2 ELECTROCHEMISTRY Electrochemical science advances Pub Date : 2022-03-11 DOI:10.1002/elsa.202100192
Wolfgang Nitschke, Barbara Schoepp-Cothenet, Simon Duval, Kilian Zuchan, Orion Farr, Frauke Baymann, Francesco Panico, Alessandro Minguzzi, Elbert Branscomb, Michael J. Russell
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引用次数: 5

Abstract

The second law of thermodynamics leaves no doubt that life on planet Earth and its inherent substantial decrease in entropy is fundamentally based on mechanisms converting environmental free energy into the spatial and temporal order of metabolic processes. This argument holds for present life as much as it does for its very beginnings some 4 billion years ago. In this contribution, we try to strip down free energy conversion in extant life (known as “bioenergetics” to the biologists) to its basic principles with the aim to potentially retrodict the nature of the pre-biotic precursor which drove life into existence. We demonstrate that these basic principles are deeply rooted in aqueous electrochemistry and strongly rely on inorganic redox compounds. The question of life's emergence, generally considered to fall into the realm of organic chemistry, should therefore rather be recognized as an electrochemical problem and its ultimate elucidation will need to strongly implicate the community of electrochemical scientists.

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水溶液电化学:从氧化还原不平衡中产生生命的工具箱
热力学第二定律毫无疑问地表明,地球上的生命及其固有的大量熵的减少从根本上是基于将环境自由能转化为代谢过程的时空秩序的机制。这一观点既适用于现在的生命,也适用于大约40亿年前生命的起源。在这篇文章中,我们试图将现存生命中的自由能量转换(生物学家称之为“生物能量学”)剥离到其基本原理,目的是潜在地追溯推动生命存在的前生物先驱的性质。我们证明了这些基本原理深深植根于水电化学,并强烈依赖于无机氧化还原化合物。生命的出现问题通常被认为属于有机化学的范畴,因此,它更应该被视为一个电化学问题,它的最终解释将需要电化学科学家团体的强烈参与。
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CiteScore
3.80
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0.00%
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审稿时长
10 weeks
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Electrochemical Contributions: Svante August Arrhenius (1859–1927) Cover Picture Electrochemical contributions: Tatyana Aleksandrovna Kryukova (1906–1987) Electrochemical contributions: Ludwig Mond (1839−1909) Electrochemical contributions: John Alfred Valentine Butler (1899–1977)
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