Alexandra Pierri Chatzikalymniou

The paper uses biophysical models to show that CCK+ basket cells have a greater role in theta-gamma coupling than PV+ basket cells in the hippocampus.

The paper introduces a computational framework for building and simulating large-scale biophysical neuronal networks, demonstrating its application to a rat dentate gyrus model with biologically plausible activity.

The paper compares minimal and detailed models of CA1 microcircuits to show how theta rhythms are generated and controlled by pyramidal and inhibitory cells.

The paper investigates how intrinsic neuronal properties and external inhibition influence theta rhythm frequencies in CA1 microcircuits using computational models.

The paper uses biophysical LFP models to show that OLM cells contribute to theta rhythms through specific connectivity patterns with BiCs and PYR cells.

The paper develops computational models of hippocampal networks to understand theta rhythm generation, finding that spike frequency adaptation and post-inhibitory rebound are key mechanisms.