López-Antoñanzas Raquel, Mitchell Jonathan, Simões Tiago R, Condamine Fabien L, Aguilée Robin, Peláez-Campomanes Pablo, Renaud Sabrina, Rolland Jonathan, Donoghue Philip C J
Institut des Sciences de l'Évolution (ISE-M, UMR 5554, CNRS/UM/IRD/EPHE), Université de Montpellier, 34090 Montpellier, France.
Departamento de Paleobiología, Museo Nacional de Ciencias Naturales-CSIC, 28006 Madrid, Spain.
Biology (Basel). 2022 Aug 7;11(8):1185. doi: 10.3390/biology11081185.
The modern era of analytical and quantitative palaeobiology has only just begun, integrating methods such as morphological and molecular phylogenetics and divergence time estimation, as well as phenotypic and molecular rates of evolution. Calibrating the tree of life to geological time is at the nexus of many disparate disciplines, from palaeontology to molecular systematics and from geochronology to comparative genomics. Creating an evolutionary time scale of the major events that shaped biodiversity is key to all of these fields and draws from each of them. Different methodological approaches and data employed in various disciplines have traditionally made collaborative research efforts difficult among these disciplines. However, the development of new methods is bridging the historical gap between fields, providing a holistic perspective on organismal evolutionary history, integrating all of the available evidence from living and fossil species. Because phylogenies with only extant taxa do not contain enough information to either calibrate the tree of life or fully infer macroevolutionary dynamics, phylogenies should preferably include both extant and extinct taxa, which can only be achieved through the inclusion of phenotypic data. This integrative phylogenetic approach provides ample and novel opportunities for evolutionary biologists to benefit from palaeontological data to help establish an evolutionary time scale and to test core macroevolutionary hypotheses about the drivers of biological diversification across various dimensions of organisms.
分析和定量古生物学的现代时代才刚刚开始,它整合了形态学和分子系统发育学、分歧时间估计等方法,以及表型和分子进化速率。将生命之树校准到地质时间处于许多不同学科的交叉点,从古生物学到分子系统学,从地质年代学到比较基因组学。创建一个塑造生物多样性的主要事件的进化时间尺度是所有这些领域的关键,并且需要从每个领域获取信息。传统上,各学科采用的不同方法和数据使得这些学科之间的合作研究变得困难。然而,新方法的发展正在弥合各领域之间的历史差距,提供一个关于生物进化历史的整体视角,整合来自现存和化石物种的所有可用证据。由于仅包含现存分类单元的系统发育树没有足够的信息来校准生命之树或完全推断宏观进化动态,系统发育树最好同时包括现存和已灭绝的分类单元,而这只能通过纳入表型数据来实现。这种综合系统发育方法为进化生物学家提供了丰富而新颖的机会,使他们能够从古生物学数据中受益,以帮助建立进化时间尺度,并检验关于生物多样性驱动因素在生物体各个维度上的核心宏观进化假说。