Victoria Booth

The paper explains how the granular retrosplenial cortex exhibits rapid switching between in-phase and anti-phase interhemispheric rhythms within a single theta cycle using computational models.

This paper presents a dynamical circuit model of C. elegans chemotaxis that captures sharp turning behavior through emergent dynamics.

This study models how heminode disruption in spiral ganglion neurons interacts with background noise to impair auditory processing and sound localization.

This paper identifies mechanisms of excitatory-inhibitory balance dysregulation in spinal cord dorsal horn subcircuits that contribute to allodynia, revealing subcircuit-specific vulnerabilities and potential therapeutic targets.

This paper investigates the role of GluN2C/D-containing NMDA receptors in the inferior colliculus, showing they enhance temporal summation and affect firing rates in response to sound.

The paper uses a computational model to simulate how anesthesia affects neuronal networks and how cholinergic effects can reverse these changes.

The paper develops a computational package to analyze sleep-wake patterns and shows that aligning them with circadian rhythm reduces daytime sleepiness, even with less total sleep.

The paper identifies conditions for spatially localized cluster firing in inhibitory neural networks with non-monotonic, distance-dependent connectivity.

This paper constructs a computational model to compare how synaptopathy and myelin defects contribute to hidden hearing loss by simulating sound-evoked auditory nerve responses.

The paper develops a neural circuit model of spinal cord pain processing to investigate circadian rhythmicity in pain sensitivity and identifies dysregulated inhibition as a mechanism for phase shifts in neuropathic pain.

This paper reviews experimental evidence on how circadian rhythms and sleep affect pain sensitivity, informing mathematical models of pain-sleep interactions.

The paper develops a mathematical model to predict how circadian rhythms and sleep behavior influence daily pain sensitivity variations.