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A computational study quantifies how macroscopic grid-like representations may emerge in the human brain using different hypotheses and navigation patterns, indicating the need to further characterize properties of grid cells.

fMRI and high-density ECoG recordings reveal a hierarchical gradient along the auditory pathway for auditory sequence processing in the marmoset brain.

By employing high-field fMRI and taking advantage of well-known global connectivity fingerprints and sensitivity to spatial and non-spatial information, it is shown that the entorhinal cortex is primarily divided into anterior and posterior subregions.

Teaching a tactile alphabet to sighted adults reveals the brain’s unexpected potential for change.

MRI methods are promising techniques for investigating the human subcortical auditory system, and these publicly available data, atlases, and tools make researching human audition simpler and more reliable.

Functional connectivity in the human brain reflects changes in synaptic plasticity induced with repeated paired stimulation.

By employing high-field fMRI to measure connectivity with the hippocampus and adjacent parahippocampal structures within the medial temporal lobe, it is shown that the entorhinal cortex can be divided into anterior-lateral and posterior-medial subregions.

High-resolution blood oxygen level-dependent functional magnetic resonance imaging enables brain-wide mapping of activated regions during sensory stimulation in awake mice, including associated areas, for high-order sensory processing including anticipation responses.

Functional imaging (fMRI) across four mammalian species maps the brain areas engaging in burst-suppression activity during anesthesia, and uncovers differences between primates and rodents.