This research uses cavefish to reveal how evolution reshapes the brain. By comparing surface and cave-adapted forms, it shows that neural circuits lost to vision are repurposed for touch and smell. These findings demonstrate how evolution refines existing brain structures to meet environmental demands.

About 8% of the human genome originates from ancient viruses. This research uses bioinformatics and evolutionary comparisons to understand why viral DNA persists and how cells silence it through DNA methylation. Identifying how genomes separate useful from non-functional DNA helps clarify which genetic elements matter for human health and disease.

Fungal infections are becoming harder to treat as fungi rapidly evolve resistance to limited antifungal drugs. This research reveals that large, multi-gene mutations—once overlooked—are common in resistant fungi. Understanding these dramatic genetic changes is critical for developing more effective antifungal therapies.

Adele Pentland, a pterosaur palaeontologist, has named Australia’s two most complete pterosaur species and described the country’s oldest specimens. Her work supports regional palaeotourism and has reached hundreds of thousands through museums, media, and outreach. She aims to inspire future scientists, especially young girls from diverse backgrounds.

Fruit flies normally die from sleep loss due to lethal gut inflammation. But a mutant “fumin” fly, which sleeps very little, survives without inflammation. This research investigates how altered dopamine processing protects these flies, offering insight into why sleep is essential and how sleep loss contributes to disease.

This research reveals how deep-sea squid evolved camera-type eyes tuned to bioluminescent light. The giant squid Taningia has visual pigments matched to its own yellow-green glow, allowing long-distance communication while staying hidden from predators. Understanding squid visual sensitivity can guide safer deep-sea exploration using lighting that avoids harming marine animals.

This research studies the unusually long-lived Heliconius butterflies to uncover genetic mechanisms behind extended lifespan. By analysing DNA from butterflies across their lifespan, it aims to reveal evolutionary strategies for longevity that may inform future human ageing therapies. Understanding diverse animal lifespans could guide healthier ageing — without mythical “Fountains of Youth.”

This research examines how honeybee queens adjust egg size in response to their environment. Queens in food-rich urban areas lay smaller eggs, while those in rural areas lay eggs 45% larger, producing bees that forage earlier and more often. These findings can guide beekeeping and support pollinator health, crucial for global food supply.