Zebrafish implement a stochastic recursive algorithm during prey capture that reflects an implicit physical model of the world.

During natural visual behavior in mice, orienting towards a target is driven by head movements, during which the eyes stabilize and shift the visual input.

Experience strengthens hunting in larval zebrafish by recruiting the forebrain to increase the prey-evoked activity in visual areas and trigger motor activity and prey capture.

Echolocating toothed whales can detect and react to sudden prey movements during close approaches with speeds similar to ultra-fast tracking responses in human vision.

Digital reconstruction of environment combined with eye and head-tracking enabled the process of prey-detection and capture to be seen from the freely moving mouse’s point-of-view and shows the exact visual-field and retinal location mice use when chasing prey and the advantage.

Harbor porpoises dynamically control biosonar field of view as they track and capture prey, focusing the beam through deformations to the melon.

Early hunting experience modifies the kinematics of hunting in larval zebrafish to increase the probability of successfully capturing live prey.

A subset of retinal ganglion cells respond specifically to small moving objects and project to a visual area that plays a key role in prey capture behavior.

Bonobo groups that share overlapping ranging areas and engage in regular social exchange show "behavioural group identity" of hunting techniques in the absence of local ecological variation.

The unique modus operandi of cone snail venom insulins provides new insight into insulin receptor activation and informs on the design of insulin analogs for the treatment of diabetes.