Mayank R. Mehta

The paper shows that moving visual stimuli elicit topographic and directional responses in most entorhinal neurons, revealing visual input's role in shaping their activity.

This study shows that during conditioning tasks, hippocampal activity shifts from spatial to temporally structured patterns, disrupting place coding in rats.

The paper examines kinematic fields in the visuo-hippocampal circuit by analyzing speed and acceleration tuning in mice, finding that 44.3% of neurons form kinematic receptive fields comparable to place cells and visual tuning.

The paper presents a mean field model predicting spontaneous persistent activity and inactivity in cortico-entorhinal networks, confirmed by in vivo experiments and anatomical data.

The paper investigates neural responses to a silent movie in head-fixed mice, finding that hippocampal neurons exhibit movie-selectivity with 'movie-fields' spanning a wide duration range, suggesting continuous-sequence encoding.

The paper shows that rat hippocampal neurons encode visual stimuli with vectorial spatial selectivity, which is retrospective and distinct from place cells.

The paper reviews experimental findings and computational models of fast dendritic spikes in rats, highlighting their role in enhancing neuronal computational capacity and network complexity.

This study shows that virtual reality enhances hippocampal theta rhythmicity and induces a novel eta rhythm in rats, localized to the CA1 cell layer and modulated by interneurons.

This study shows hippocampal neurons encode path distance, head direction, and allocentric position in sequences, with plasticity linked to navigational performance.

The paper measures dendritic membrane potential in freely behaving rats over multiple days, revealing higher dendritic spiking rates and hybrid analog-digital coding.