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活性氧或活性硫:我们为何应该考虑后者。

Reactive oxygen species or reactive sulfur species: why we should consider the latter.

机构信息

Indiana University School of Medicine-South Bend, Raclin Carmichael Hall, 1234 Notre Dame Avenue, South Bend, IN 46617, USA

出版信息

J Exp Biol. 2020 Feb 26;223(Pt 4):jeb196352. doi: 10.1242/jeb.196352.

DOI:10.1242/jeb.196352
PMID:32102833
Abstract

The biological effects of oxidants, especially reactive oxygen species (ROS), include signaling functions (oxidative eustress), initiation of measures to reduce elevated ROS (oxidative stress), and a cascade of pathophysiological events that accompany excessive ROS (oxidative distress). Although these effects have long been studied in animal models with perturbed ROS, their actions under physiological conditions are less clear. I propose that some of the apparent uncertainty may be due to confusion of ROS with endogenously generated reactive sulfur species (RSS). ROS and RSS are chemically similar, but RSS are more reactive and versatile, and can be stored and reused. Both ROS and RSS signal via oxidation reactions with protein cysteine sulfur and they produce identical effector responses, but RSS appear to be more effective. RSS in the form of persulfidated cysteines (Cys-S-S) are produced endogenously and co-translationally introduced into proteins, and there is increasing evidence that many cellular proteins are persulfidated. A number of practical factors have contributed to confusion between ROS and RSS, and these are discussed herein. Furthermore, essentially all endogenous antioxidant enzymes appeared shortly after life began, some 3.8 billion years ago, when RSS metabolism dominated evolution. This was long before the rise in ROS, 600 million years ago, and I propose that these same enzymes, with only minor modifications, still effectively metabolize RSS in extant organisms. I am not suggesting that all ROS are RSS; however, I believe that the relative importance of ROS and RSS in biological systems needs further consideration.

摘要

氧化剂,尤其是活性氧物种(ROS)的生物学效应包括信号功能(氧化适应)、启动降低升高的 ROS(氧化应激)的措施,以及伴随过量 ROS 的一连串病理生理事件(氧化应激)。尽管这些效应在 ROS 失调的动物模型中早已得到研究,但它们在生理条件下的作用尚不清楚。我提出,一些明显的不确定性可能是由于将 ROS 与内源性产生的活性硫物种(RSS)混淆所致。ROS 和 RSS 在化学上相似,但 RSS 更具反应性和多功能性,并且可以储存和重复使用。ROS 和 RSS 都通过与蛋白质半胱氨酸硫的氧化反应进行信号传递,并且它们产生相同的效应器反应,但 RSS 似乎更有效。以过硫化半胱氨酸(Cys-S-S)形式存在的 RSS 是内源性产生的,并在共翻译过程中引入蛋白质,越来越多的证据表明许多细胞蛋白都被过硫化。一些实际因素导致了 ROS 和 RSS 之间的混淆,本文对此进行了讨论。此外,几乎所有内源性抗氧化酶都出现在大约 38 亿年前生命开始之后,当时 RSS 代谢主导了进化。这远比 6 亿年前 ROS 的出现要早,我提出这些相同的酶,只需稍加修改,仍然可以有效地代谢现存生物体内的 RSS。我并不是说所有的 ROS 都是 RSS;然而,我认为 ROS 和 RSS 在生物系统中的相对重要性需要进一步考虑。

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