It is illustrated how comparative genomics of non-model species illuminates the molecular basis of convergent and divergent adaptations and demonstrates that understanding evolution’s general principles and creative solutions requires embracing life’s full diversity.
Abstract
Abstract For much of the 20th century, our understanding of genetics and evolution was predominantly shaped by intensive studies of a few model organisms such as Drosophila melanogaster, Caenorhabditis elegans, and Mus musculus. While these species provided fundamental insights, their laboratory-adapted characteristics potentially made them evolutionary outliers. The advent of next-generation sequencing technologies and sophisticated bioinformatic tools has increased accessibility of genomic research, enabling comprehensive studies of diverse non-model organisms across the tree of life. This expansion has substantially transformed our understanding of molecular evolution, revealing, for example, that convergent evolution operates through multiple mechanisms across different organizational levels, that speciation is a genomically heterogeneous process involving structural variants and adaptive introgression, and that genome architecture exhibits extensive variation in size, content, and organization. Using aquatic mammals as exemplars, we illustrate how comparative genomics of non-model species illuminates the molecular basis of convergent and divergent adaptations. This paradigm shift demonstrates that understanding evolution’s general principles and creative solutions requires embracing life’s full diversity.
Abstract Over the past three decades, Saccharomyces cerevisiae has gone from being the first eukaryote to have its genome fully sequenced to one of the most studied biological systems. Advances in sequencing technologies, functional genomics, and population genomics have expanded the scope of study from a single labora...
Gauthier Brach, J. Schacherer· FEMS Yeast Research· 0 citations
The results reveal that recurrent deletion events have repeatedly contributed to the evolution of cave-adapted phenotypes and highlight deletions as underexplored contributors of adaptive evolution in a system characterized by trait loss.
Emma Y. Roback, Maggs X, Edward S. Ricemeyer et al.· bioRxiv· 1 citation
It is highlighted how functional genetic tools such as interspecies hybridization, mutagenesis and transgenesis, as well as the recently reported genome assemblies, have enabled new avenues for hypothesis-driven and technology-driven exploration that collectively establish danionins as important genetic models for unde...
Marco Podobnik, Yan-Song Lu, U. Irion et al.· Nature reviews genetics· 0 citations
The findings demonstrate the broad-scale impact of TE-dependent genome evolution during ant adaptive radiation and suggest that similar comparative analyses across other major lineages will be worthwhile to reconstruct the wider macroevolutionary impact of TEs.
Lukas Schrader, Janina L. Rinke, M. Errbii et al.· Science Advances· 1 citation
Evolutionary developmental biology (evo-devo) and evolutionary biochemistry share a common goal: to understand the causes of phenotypic evolution in terms of the mechanisms that translate genetic sequence information into developmental outcomes or the structure/function of macromolecules. Although dialog between the tw...
S. Herrera-Álvarez, Joseph W. Thornton· Annual Review of Ecology, Ev...· 0 citations
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