To see the world stable across saccades, the brain compensates retinal shifts induced by the movements, pre-saccadic maps of sensitivity reveal that this process takes time and follows attentional dynamics.

Mice can detect changes in hue independent of luminance, with differing sensitivity to hue and luminance in different parts of visual space.

Mathematical modeling suggests that grid cells in the rodent brain use fundamental principles of number theory to maximize the efficiency of spatial mapping, enabling animals to accurately encode their location with as few neurons as possible.

A novel signaling system in heart mitochondria in which the byproduct of energy metabolism, CO₂/bicarbonate, acts as the primary signal to tune mitochondrial ATP production while keeping energy supply in tight synchronization with energy consumption.

The odor-elicited responses of olfactory receptor neurons consist of a discrete set of four spike pattern motifs, each with distinct adaptation properties, together amplifying distinctions between similar and temporally complex chemical inputs such as odor plumes.

Spatial mapping serves as a cognitive scaffold for acquiring abstract conceptual invariances across sensory domains, shedding light on the mechanisms of human learning.

A cell-sized fully confined space significantly controls the emergence and stability of a protein wave, resulting in intracellular spatiotemporal regulation driven by a reaction-diffusion mechanism.

The phase of a neuron in an oscillatory network can remain independent of network frequency when synaptic input strength and peak phase are adjusted in a frequency-dependent manner.

Rather than complex decisions, it is the motion of individuals that allows for collective foraging regulation in ant colonies.

The visual system can learn to rapidly adjust itself through experience, switching modes to stabilize vision perception and optimize perceptual processes.