School of BioSciences, The University of Melbourne, Parkville, Victoria, Australia.
School of BioSciences, The University of Melbourne, Parkville, Victoria, Australia; Department of Sciences, Museums Victoria, Melbourne, Victoria, Australia.
Mol Phylogenet Evol. 2024 Jan;190:107963. doi: 10.1016/j.ympev.2023.107963. Epub 2023 Nov 14.
The increasing availability of large molecular phylogenies has provided new opportunities to study the evolution of species traits, their origins and diversification, and biogeography; yet there are limited attempts to synthesise existing phylogenetic information for major insect groups. Bees (Hymenoptera: Anthophila) are a large group of insect pollinators that have a worldwide distribution, and a wide variation in ecology, morphology, and life-history traits, including sociality. For these reasons, as well as their major economic importance as pollinators, numerous molecular phylogenetic studies of family and genus-level relationships have been published, providing an opportunity to assemble a bee 'tree-of-life'. We used publicly available genetic sequence data, including phylogenomic data, reconciled to a taxonomic database, to produce a concatenated supermatrix phylogeny for the Anthophila comprising 4,586 bee species, representing 23% of species and 82% of genera. At family, subfamily, and tribe levels, support for expected relationships was robust, but between and within some genera relationships remain uncertain. Within families, sampling of genera ranged from 67 to 100% but species coverage was lower (17-41%). Our phylogeny mostly reproduces the relationships found in recent phylogenomic studies with a few exceptions. We provide a summary of these differences and the current state of molecular data available and its gaps. We discuss the advantages and limitations of this bee supermatrix phylogeny (available online at beetreeoflife.org), which may enable new insights into long standing questions about evolutionary drivers in bees, and potentially insects more generally.
大型分子系统发育的日益普及为研究物种特征的进化、起源和多样化以及生物地理学提供了新的机会;然而,对于主要昆虫类群,综合现有系统发育信息的尝试有限。蜜蜂(膜翅目:Anthophila)是一类广泛分布的昆虫传粉者,在生态学、形态学和生活史特征(包括社会性)方面存在广泛的变异。由于这些原因,以及它们作为传粉者的主要经济重要性,已经发表了许多关于科和属级关系的分子系统发育研究,为组装蜜蜂的“生命之树”提供了机会。我们使用了公开的遗传序列数据,包括系统发育基因组数据,并将其协调到一个分类数据库中,为 Anthophila 生成了一个包含 4586 种蜜蜂物种的串联超级矩阵系统发育,代表了 23%的物种和 82%的属。在科、亚科和族级水平上,预期关系的支持是可靠的,但在一些属之间和内部,关系仍然不确定。在科内,属的采样范围从 67%到 100%,但物种覆盖率较低(17%-41%)。我们的系统发育主要再现了最近系统发育基因组研究中发现的关系,但也有一些例外。我们总结了这些差异以及当前可用的分子数据状态及其差距。我们讨论了这种蜜蜂超级矩阵系统发育的优点和局限性(可在 beetreeoflife.org 上在线获取),这可能使我们对有关蜜蜂进化驱动因素的长期问题以及潜在的昆虫更普遍的问题有新的认识。