Little Swifts dynamically adjust their foraging behavior to aerial insect abundance, revealing key insights into predator–prey interactions and optimal foraging strategies in aerial environments.

Worms' attraction to pheromones turns into repulsion when a food patch is depleted, helping them avoid already exploited territories and search for new food sources.

Animals work in a world full of surprises, where using energy to position sensors proportional to the location's expected information avoids the pitfalls of positioning them at the information maxima.

In both foraging and intertemporal choice tasks, rats prefer immediate rewards to delayed rewards, and this preference can be explained by a form of hyperbolic discounting.

An ecological trade-off between growth and death enables microbes with different dispersal strategies to coexist on particulate matter in the oceans.

The likelihood to perform tool use during foraging is linked to personality traits in ants, suggesting an original interplay between consistent inter-individual variability and division of labor in social species.

C. elegans foraging efficiently approximate maximally informative search strategies that involve abrupt switching between different types of behaviors.

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

At optimal concentrations, the ciliary inhibitor Cp110 promotes ciliogenesis by localization to previously uncharacterized sites at the basal body, where it recruits ciliary adhesion complexes that mediate basal body interaction with F-actin networks.

Mathematical characterization of the shape of cellular protrusions that form cell–cell contacts in tissues reveals the parameters required for optimizing biological functional objectives, like maximizing cell–cell contact and communicating directional information.