Human neuroimaging with time-evolving network analysis reveals dynamic interactions among multiple functional brain networks in response to sustained pain.

Low-frequency correlations among neurons in monkey visual area V4 impair the animal's ability to perform an attention-demanding task, suggesting a causal role of these fluctuations in perception.

Through mathematical analysis and computer simulations, the neuronal underpinnings of feasible models of sequence learning are delineated.

An innovative, fully computerized approach for measuring spontaneous social behavior in mice closely follows murine ethology, eliminates crucial sources of data irreproducibility and enables fast, inexpensive assessment of sociability in group-housed subjects.

A match between neuronal variability and tuning enables optimized coding of natural self-motion in early vestibular pathways.

Endothelial tightening by augmenting low level Wnt/β-catenin activity in vessels of the mouse subfornical organ, influences neuronal activation in water-deprived mice, linking endothelial barrier properties to neuro-vascular coupling.

Modifying the recurrent connectivity of spiking networks provides sufficient flexibility to generate arbitrarily complex recurrent dynamics, suggesting that individual neurons in a recurrent network have the capability to support near universal dynamics.

Affectionate touch in everyday life is linked to lower self-reported burden and is associated with higher endogenous oxytocin levels during times of prolonged stress.

Simultaneous recording from many neurons in macaque lateral intraparietal area reveals the elusive drift-diffusion signal, long suspected to underlie individual perceptual decisions and response times.

Stimulus representation in primary visual cortex rebounds to its original state following therapeutic sensory deprivation in adults.