The last decade has produced exciting new ideas about retrosplenial cortex (RSC) and its
role in integrating diverse inputs. Here, we review the diversity in forms of spatial and …

Despite increasing evidence of its involvement in several key functions of the cerebral
cortex, the vestibular sense rarely enters our consciousness. Indeed, the extent to which …

Animals use information about gravity and other destabilizing forces to balance and
navigate through their environment. Measuring how brains respond to these forces requires …

Spatial cognition depends on an accurate representation of orientation within an
environment. Head direction cells in distributed brain regions receive a range of sensory …

Spatial navigation has received much attention from neuroscientists, leading to the
identification of key brain areas and the discovery of numerous spatially selective cells …

Neuronal signals encoding the animal's position widely modulate neocortical processing.
While these signals are assumed to depend on hippocampal output, their origin has not …

This review will update the current knowledge on the anatomical and cellular basis of
vestibular contributions to spatial orientation and navigation from a translational perspective …

How animals use tactile sensation to detect important objects and remember their location in
a world-based coordinate system is unclear. Here, we hypothesized that the retrosplenial …

Evidence suggests that the hippocampus conveys memory-related neural patterns across
distributed cortical circuits during high-frequency oscillations called sharp-wave ripples …

The sense of direction is critical for survival in changing environments and relies on flexibly
integrating self-motion signals with external sensory cues. While the anatomical substrates …