Within-species comparison of population receptive fields determined with fMRI and electrophysiology in nonhuman primates reveals the neuronal basis of blood-oxygen-level-dependent-based retinotopy.

Many disorders are characterized by underlying abnormalities in network connectivity which, though difficult to address with explicit training procedures, can be directly targeted through covert neurofeedback.

Neuronal activity modulates blood–brain barrier permeability, influencing synaptic plasticity and local network reorganization in the healthy brain.

The flexible network architecture of the brain is sensitive to the modulation of neural gain, which may be mediated by ascending arousal nuclei, such as the noradrenergic locus coeruleus.

Across individuals of a mouse population, brain regions volumes scaled to accommodate the same amount of cells, but left hemisphere cortical regions were denser than right, and several regions of the limbic system were more pronounced in either sex.

Greater connectivity of the descending pain modulatory system network in the infant brain is associated with lower pain-related brain activity.

A new brain perivascular cell type in the zebrafish related to mammalian Fluorescent Granular Perithelial (FGP) cells emerges directly from endothelium during early development.

Imaging of structure and function in the brain from thousands of participants was used along with genetics and biophysical measures to study many different aspects of how the brain ages.

A hidden population of microglial progenitors with distinct transcriptomic signatures are among homeostatic microglia in adult mouse brain.

Combining computational models with FMRI in humans during pain reversal learning reveals parallel pain modulatory brain circuits that differ in their flexibility and sensitivity to instructions.