Three-dimensional cell modelling, lipid analysis, transcriptomics, and live-cell imaging reveal biological insights in to the key stages of the chytrid fungus life cycle.

The genomic regions that cause male hybrids between house mouse subspecies to have low fertility have been identified.

Exploring tissue-specific regulation of gene expression with human-chimpanzee hybrid cells helps us understand how life evolves and what makes us human.

Spizellomycespunctatusis a genetically tractable chytrid and model organism for comparative cell biology for understanding evolution of the cell cycle, actin dynamics, and cellularization in fungi and early eukaryotes.

Rapid acquisition of chromosome rearrangements, together with independently acting transmission distorter alleles on each chromosome, drive near complete sterility in fission yeast hybrids.

Cell cycle network evolution in a fungal ancestor was punctuated by the arrival of a viral DNA-binding protein that was permanently incorporated into the regulatory network controlling cell cycle entry.

The accuracy of the Hybrid Vocalization Localizer (HyVL) brings a revolution to the study of social vocalizations of rodents and other animals, where vocalizations often occur in close proximity, and will empower downstream analysis of sequence and semantic analyses.

Genetic barriers to gene flow maintain divergent linked substitution rates in hybridization.

Cryogenic electron microscopy enables real-time structure-based drug design to advance the discovery of novel classes of small molecule inhibitors.

Prdm9-generated meiotic asynapsis of homologous chromosomes in mouse subspecific hybrids causes hybrid sterility and can be reversed by introducing random stretches of consubspecific sequence (≥ 27Mb) on four chromosomes most sensitive to asynapsis.