Empirical patterns of genomic and phenotypic variation across the landscape are used to develop a predictive model that will help build resilient ecological communities.

An integrated landscape framework shows how the coordinated changes in vocal apparatus, muscles, nervous system, and social interaction together influence the trajectory of vocal development.

A genetic approach documents that mitochondrial DNA moves from donor cells to recipient mtDNA-depleted cells in whole mitochondria and that this restores mitochondrial respiration and the capacity of the cells to form tumours.

An experimental animal model provides further insights into the host and viral mechanisms underlying airborne transmission of SARS-CoV-2.

Building on previous work (Reznik et al., 2016), independent measurements of mitochondrial genome copy number and expression indicate that several solid tumor types suppress respiratory metabolism compared to normal tissue.

Cells of the mammalian cochlea can be reprogrammed to produce mechanosensory hair cells, but epigenetic changes in the cochlea make this process less efficient with age.

When an essential metabolic gene in E. coli is mutationally inactivated, subsequent evolution rarely reverts the mutation to wild type but rather follows unexpected paths that rewire metabolic fluxes.

The gain of transposable elements in yeast hybrids does not scale with genetic divergence levels and is most impacted by structural variations and multiple aspects of individual hybrid genetic backgrounds.

Habitat loss rather than fragmentation per se can weaken the positive BEF relationship by reducing the percentage of grassland specialists in the community.

Enzyme evolution is reversible on a structural and functional (phenotypic) level, but through a different mutational pathway that leads to genotypic incompatibility with the ancestor.