Breathless through Time: Oxygen and Animals across Earth's History.

IF 2.1 4区 生物学 Q2 BIOLOGY Biological Bulletin Pub Date : 2022-10-01 DOI:10.1086/721754
Erik A Sperling, Thomas H Boag, Murray I Duncan, Cecilia R Endriga, J Andres Marquez, Daniel B Mills, Pedro M Monarrez, Judith A Sclafani, Richard G Stockey, Jonathan L Payne
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引用次数: 6

Abstract

AbstractOxygen levels in the atmosphere and ocean have changed dramatically over Earth history, with major impacts on marine life. Because the early part of Earth's history lacked both atmospheric oxygen and animals, a persistent co-evolutionary narrative has developed linking oxygen change with changes in animal diversity. Although it was long believed that oxygen rose to essentially modern levels around the Cambrian period, a more muted increase is now believed likely. Thus, if oxygen increase facilitated the Cambrian explosion, it did so by crossing critical ecological thresholds at low O2. Atmospheric oxygen likely remained at low or moderate levels through the early Paleozoic era, and this likely contributed to high metazoan extinction rates until oxygen finally rose to modern levels in the later Paleozoic. After this point, ocean deoxygenation (and marine mass extinctions) is increasingly linked to large igneous province eruptions-massive volcanic carbon inputs to the Earth system that caused global warming, ocean acidification, and oxygen loss. Although the timescales of these ancient events limit their utility as exact analogs for modern anthropogenic global change, the clear message from the geologic record is that large and rapid CO2 injections into the Earth system consistently cause the same deadly trio of stressors that are observed today. The next frontier in understanding the impact of oxygen changes (or, more broadly, temperature-dependent hypoxia) in deep time requires approaches from ecophysiology that will help conservation biologists better calibrate the response of the biosphere at large taxonomic, spatial, and temporal scales.

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《穿越时空:地球历史上的氧气和动物》
在地球历史上,大气和海洋中的氧气水平发生了巨大变化,对海洋生物产生了重大影响。由于地球历史的早期既缺乏大气中的氧气,也缺乏动物,因此形成了一种持久的共同进化叙事,将氧气的变化与动物多样性的变化联系起来。尽管长期以来人们一直认为,寒武纪前后氧气基本上上升到了现代水平,但现在人们认为,氧气的增长可能更为缓慢。因此,如果氧气的增加促进了寒武纪大爆发,那么它是通过在低氧条件下越过临界生态阈值来实现的。在古生代早期,大气中的氧气可能一直保持在低或中等水平,这可能导致了后生动物的高灭绝率,直到古生代晚期氧气最终上升到现代水平。在此之后,海洋脱氧(和海洋大灭绝)越来越多地与大型火成岩省爆发联系在一起——大量的火山碳输入到地球系统,导致全球变暖、海洋酸化和氧气损失。尽管这些古代事件的时间尺度限制了它们作为现代人为全球变化的精确类比的效用,但地质记录的明确信息是,大量快速注入地球系统的二氧化碳始终导致与今天观察到的相同的致命三压力源。了解氧气变化(或者更广泛地说,温度依赖性缺氧)在深层时间中的影响的下一个前沿需要来自生态生理学的方法,这将有助于保护生物学家在大的分类、空间和时间尺度上更好地校准生物圈的响应。
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来源期刊
Biological Bulletin
Biological Bulletin 生物-海洋与淡水生物学
CiteScore
3.30
自引率
6.20%
发文量
47
审稿时长
6-12 weeks
期刊介绍: The Biological Bulletin disseminates novel scientific results in broadly related fields of biology in keeping with more than 100 years of a tradition of excellence. The Bulletin publishes outstanding original research with an overarching goal of explaining how organisms develop, function, and evolve in their natural environments. To that end, the journal publishes papers in the fields of Neurobiology and Behavior, Physiology and Biomechanics, Ecology and Evolution, Development and Reproduction, Cell Biology, Symbiosis and Systematics. The Bulletin emphasizes basic research on marine model systems but includes articles of an interdisciplinary nature when appropriate.
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