Retinal motion patterns during locomotion are shaped by gait, gaze location, and the terrain, and these motion patterns may influence the way motion sensitivity and receptive field properties vary across the visual field.

The nervous system circuitry that controls locomotion has evolved to intrinsically generate an optimal search pattern for resources.

C. elegans exhibits two distinct behavioural macro-states, active and quiet wakefulness, and protein kinase A regulates switching between these two states.

The three main types of inhibitory neurons in mouse primary visual cortex respond differently to locomotion in darkness and during visual stimulation, revealing context-dependent responses to changes in behavioral state.

A fly's locomotion can be decomposed into a small number of locomotor features which can be modulated by odors and other sensory information.

Neurons in the brain exhibit activity with various relations to locomotion and these signals are best decoded by combining activities from many neurons.

A new tool enables measuring feeding and locomotion simultaneously which will enable insights into environmental, developmental, neuronal, and genetic factors underlying behavioral regulation.

Layer 5 neuron apical tuft in mouse visual cortex display widespread, highly correlated calcium signals, with a strong and asymmetric coupling to somatic signals, independent of visual stimulation and locomotion.

Comprehensive behavioral ethograms reveal a fear conditioned cue to elicit a temporally organized suite of behaviors spanning freezing, locomotion, rearing, and jumping.

Transient cell-cell contact of eukaryotic cells, called contact following locomotion, causes cell density segregation, and its high-density region traveled as a band within the disordered background.