Thesis Advisor: Dr. Lisette de Pillis (Harvey Mudd College - Department of Mathematics)
Second Reader: Dr. Kelvin Quiñones-Laracuente (NYU Grossman School of Medicine - Department of Neuroscience)
Contact: nbabin@hmc.edu
The brain's neurons processes information through the action potential, an instantaneous change in voltage potential across the neural membrane, often referred to as a neural spike or fire. Information is largely believed to be encoded in neural firing rates and specific spike timings. Given the current high-flux of neural imaging and recording technologies, it is desirable to be able to summarize and analyze neural activity represented as spike trains. This thesis provides a review of spike train analysis techniques, focusing first on general statistical summaries of prototypical firing patterns, followed by a detailed informational analysis on effective neural connectivity. This theoretical primer is then supplemented with real-world experimental spike train data recorded from in-vivo mice brains during transmission of social behaviors. These analyses provide a summary of prototypical firing patterns of the mouse's hypothalamic paraventricular nucleus and effective neural structure mapping transmitted social information to specific neural representations.