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生命而非气候对超过 4000 万年的大尺度多样性产生影响。

Life rather than climate influences diversity at scales greater than 40 million years.

机构信息

Department of Geology and Mineralogy, Vilnius University, Vilnius, Lithuania.

Physics Department, McGill University, Montreal, Quebec, Canada.

出版信息

Nature. 2022 Jul;607(7918):307-312. doi: 10.1038/s41586-022-04867-y. Epub 2022 Jun 22.

DOI:10.1038/s41586-022-04867-y
PMID:35732740
Abstract

The diversity of life on Earth is controlled by hierarchical processes that interact over wide ranges of timescales. Here, we consider the megaclimate regime at scales ≥1 million years (Myr). We focus on determining the domains of 'wandering' stochastic Earth system processes ('Court Jester') and stabilizing biotic interactions that induce diversity dependence of fluctuations in macroevolutionary rates ('Red Queen'). Using state-of-the-art multiscale Haar and cross-Haar fluctuation analyses, we analysed the global genus-level Phanerozoic marine animal Paleobiology Database record of extinction rates (E), origination rates (O) and diversity (D) as well as sea water palaeotemperatures (T). Over the entire observed range from several million years to several hundred million years, we found that the fluctuations of T, E and O showed time-scaling behaviour. The megaclimate was characterized by positive scaling exponents-it is therefore apparently unstable. E and O are also scaling but with negative exponents-stable behaviour that is biotically mediated. For D, there were two regimes with a crossover at critical timescale [Formula: see text] ≈ 40 Myr. For shorter timescales, D exhibited nearly the same positive scaling as the megaclimate palaeotemperatures, whereas for longer timescales it tracks the scaling of macroevolutionary rates. At scales of at least [Formula: see text] there is onset of diversity dependence of E and O, probably enabled by mixing and synchronization (globalization) of the biota by geodispersal ('Geo-Red Queen').

摘要

地球上生命的多样性是由在广泛时间尺度上相互作用的层次过程控制的。在这里,我们考虑规模≥100 万年(Myr)的大气候制度。我们专注于确定“漫游”随机地球系统过程(“宫廷小丑”)和稳定生物相互作用的领域,这些相互作用会导致宏观进化率波动中的多样性依赖性(“红皇后”)。使用最先进的多尺度 Haar 和交叉 Haar 波动分析,我们分析了全球属级显生宙海洋动物古生物学数据库中的灭绝率(E)、起源率(O)和多样性(D)以及海水古温度(T)的记录。在从几百万年到几亿年的整个观测范围内,我们发现 T、E 和 O 的波动表现出时间标度行为。大气候的特点是正的标度指数-因此显然是不稳定的。E 和 O 也是标度的,但具有负指数-稳定的行为是由生物介导的。对于 D,有两个具有关键时间尺度[公式:见文本]≈40Myr 的交叉点的区域。对于较短的时间尺度,D 表现出与大气候古温度几乎相同的正标度,而对于较长的时间尺度,它跟踪宏观进化率的标度。在至少[公式:见文本]的尺度上,E 和 O 的灭绝率开始依赖于多样性,这可能是由生物的混合和同步(全球化)通过地理扩散(“地理红皇后”)实现的。

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