This review provides a comprehensive overview of recent progress, encompassing key insect lineages such as Lepidoptera, Hymenoptera, Odonata, and Mantodea, and highlights the pivotal roles of evolutionary hot spot genes, noncoding sequences, and structural variations in driving phenotypic diversification and adaptation.
Abstract
As classic examples of adaptive evolution, insect mimicry and masquerade have been studied extensively for more than a century. Both phenomena protect insects from predators and are widely observed in nature. Previous research on phenotypic, genetic, phylogenetic, and behavioral aspects has laid a solid foundation for in-depth investigations. Recent advances in genomic data resources, analytical methodologies, and gene-editing tools have greatly facilitated the elucidation of the genetic and developmental mechanisms underlying insect mimicry and masquerade. This review provides a comprehensive overview of recent progress, encompassing key insect lineages such as Lepidoptera, Hymenoptera, Odonata, and Mantodea; highlights the pivotal roles of evolutionary hot spot genes, noncoding sequences, and structural variations in driving phenotypic diversification and adaptation; and offers novel insights into fundamental evolutionary questions such as sexual dimorphism, convergent evolution, and speciation. Furthermore, this review outlines the ongoing challenges and future prospects in the evolutionary genetics of insect mimicry and masquerade.
Hybridization—the interbreeding of genetically distinct populations or species—is hypothesized as a major force in plant evolution, driving speciation and enabling the spread of beneficial traits through adaptive introgression. Advances in genomics, phylogenomics, and bioinformatics have transformed our ability to stud...
Adaptive radiations provide powerful models to study the origins of phenotypic novelty and species diversity. Darwin’s finches constitute a classic example of adaptive radiation, in which beak morphology is a key trait related to fitness. Here, we focus on Camarhynchus tree finches by analyzing whole genomes in combina...
Matteo Sebastianelli Arbelaez, Erik D. Enbody, Carl-Johan Rubin et al.· Nature Communications· 0 citations
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
As a fundamental biological principle, genomic information is typically transmitted vertically from parent to offspring. Occasionally, however, genetic material is transferred horizontally between species. Transposable elements (TEs) are frequently involved in such horizontal transfer (HT), possibly due to their abilit...
R. Kofler, Riccardo Pianezza, Almorò Scarpa et al.· Annual Review of Genetics· 0 citations
Abstract Sociality is a complex phenotype which has evolved multiple times across the tree of life, particularly in the insects. Insect sociality likely arises via the evolution of the genome, with changes in specific genes, gene families, and gene regulatory mechanisms linked to social traits. In turn, sociality itsel...
Megan Barkdull, C. Moreau· Genome Biology and Evolution· 1 citation
This review systematically synthesizes the latest progress in the phylogeny, biogeography, genetic diversity, and molecular mechanisms underlying adaptive evolution in treeshrews to resolve species boundaries, reconstruct the temporal and spatial history of Scandentia, and clarify the molecular basis of adaptive evolut...
Tong-Tong Gu, Han-Da Zhang, Rong-Xiang Mu et al.· Frontiers in Zoology· 0 citations
Zero-knowledge proofs can verify computing results without rerunning workloads or exposing sensitive data. Magnetar helps bring them into the mainstream with support for standard programming languages, major speed gains, and quantum-resistant security. The post Proof-based general-purpose computing with Magnetar appeared first on Microsoft Research.