Biased research interest in proteins and aggregation of interactions from multiple studies can explain why node degree distributions in protein-protein interaction networks follow a power law.

Humans can rapidly build a new controller when learning continuous movement tasks and can flexibly integrate this process with adaptation of an existing controller.

Slug chloroplasts avoid damage to photosynthesis by maintaining an oxidized electron transfer chain with the help of oxygen-sensitive electron acceptors.

Single-cell analysis of skeletal mouse reveals highly diverse macrophage subgroups associated with diverse functions and age-related changes.

Analytical and numerical analyses reveal that the number of coexisting species exceeds the number of resource only for the structurally unstable case of linear tradeoff.

Structure of lecithin:cholesterol acyltransferase with a covalent acyl-intermediate mimic and a small molecule activator reveals an active conformation and that the enzyme can be activated via its membrane binding domain.

Mechanical instabilities are shown to underlie the development of bacterial biofilm morphology, suggesting an ancient origin for mechano-morphogenesis, which is known to drive developmental processes in tissues in higher organisms.

Drosophila larvae foraging adapt to different food quality and distributions modulating specific motor programs, as revealed by behavioral and modeling experiments.

Single-molecule FRET measurements and protein crosslinking reveal the compact structure of quiescent STIM1 and the conformational rearrangements that enable it to activate store-operated calcium entry.

A new optical approach reveals dynamics of ground reaction forces in Drosophila larvae and opens new avenues for studying the biomechanics of movement in small animals.