Recalling either specific people or places from memory selectively recruits separate regions of human medial parietal cortex in a pattern reminiscent of how visual cortex represents these visual categories.

Facing discrepancies in the sensory environment, multisensory information is combined in the medial superior parietal cortex to guide immediate judgements and to also adjust subsequent unisensory perception.

Topographic maps of space in frontal and parietal cortex are organized into clusters, similar to visual cortex, where multiple maps of polar angle share a confluent fovea.

Cross-species alignment based on cortical myelin content can dissociate cortical expansion and relocation from changes in connectivity profiles in the temporal lobe of higher primates.

The most comprehensive neuroanatomical atlas on the expression of three glycoprotein hormone receptors, namely, TSHRs, LHCGRs, and FSHRs, was mapped using RNAscope, a technology that allows the detection of mRNA at single-transcript level.

The results reported here provide new and foundational insights into the neural architecture that underpins hippocampal dependent memory systems in the human brain by providing detailed maps that show how different cortical areas anatomically connect within the hippocampus.

Noninvasive stimulation of hippocampal networks increases connectivity in a functionally-specific manner that is highly relevant to effective episodic memory performance that depends on the targeted network.

The BB model explains spatial cognition in terms of interactions between specific neuronal populations, providing a common computational framework for the human neuropsychological and in vivo animal electrophysiological literatures.

In causal inference, the premotor cortex dynamically integrates prior information and current sensory inputs to infer hidden structures, and selectively updates sensory representations in the parietal cortex to support behavior.

Default mode network and visual cortex are connected via two parallel pathways that differentially respond to the processing of visual scenes and semantic information about objects, reflecting domain-specific organisation.