Individual performance in rhythm perception and production is maximized within a range of domain-specific rates and is adversely affected by temporal context, and this effect is amplified with age.

The human brain involuntarily exploits multiscale regularities in rhythmic contexts to recompose the dynamic profile of visual temporal attention.

Combining psychophysics and functional MRI reveals a qualitative asymmetry in neural engagement when reflecting on whether a stimulus is seen (detection) compared to reflecting on what a stimulus is (discrimination).

Functional brain scans of human participants show that the brain encodes other people's attention in enough richness to distinguish whether that attention was directed exogenously (stimulus-driven) or endogenously (internally driven).

Neurons in the midbrain superior colliculus of free-flying echolocating bats represent 3D sensory space, and the depth tuning of single neurons is modulated by an animal's active sonar inspection of physical objects in its environment.

Epidermal PIEZO1 is a key keratinocyte mechanotransducer which mediates normal behavioral and sensory neuron responses to cutaneous mechanical stimulation.

People use uncertainty for effective arbitration between episodic memory and incremental learning.

A normative decision-making model that incorporates an information-limiting attention bottleneck is able to qualitatively replicate human behavior and make novel predictions that are verified in data.

The strong limitation of human subjects in tracking two color streams simultaneously as they independently traverse color space can be attributed to attention alternating slowly and sequentially between streams.

Covert visual attention modulates alpha-band traveling waves propagating from frontal to occipital regions in both hemispheres, yet it modulates waves propagating in the opposite direction (occipital to frontal) only in the presence of visual stimulation.