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.
The integration of a novel high spatiotemporal resolution volume imaging technique and a fast 3D tracking system allows capturing whole brain neural activities in a freely behaving larval zebrafish.
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 retinotectal map in zebrafish exhibits location-specific, functional specializations to match prey object movement in the visual field during the hunting sequence.
Single-cell RNA-sequencing and neural circuitry analyses reveal that sensorimotor transformation of different behaviors which are performed by separate circuit modules in the superior colliculus are molecularly defined by distinct transcriptomic codes of specific neuron subtypes.
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.
Brain imaging and behavioral analysis reveal two opposing states of hunger, represented by anti-correlated lateral and caudal hypothalamic dynamics that are important for the homeostatic control of feeding in zebrafish.
