Ryan Pyle
University of Notre Dame
14 Papers
19 Citations
Ryan Pyle is an academic researcher from University of Notre Dame. The author has contributed to research in topics: Reservoir computing & Population. The author has an hindex of 5, co-authored 12 publications. Previous affiliations of Ryan Pyle include Baylor College of Medicine.
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Papers
Circuit Models of Low-Dimensional Shared Variability in Cortical Networks.
TL;DR: This work shows that if the spatial and temporal scales of inhibitory coupling match known physiology, networks of model spiking neurons internally generate low-dimensional shared variability that captures population activity recorded in vivo.
188
Spatiotemporal Dynamics and Reliable Computations in Recurrent Spiking Neural Networks.
Ryan Pyle,Robert Rosenbaum +1 more
TL;DR: In this paper, the dependence of connection probability on distance was incorporated into spiking networks to generate spatiotemporal patterns that can be trained to perform dynamical computations under a reservoir computing framework.
52
A Reservoir Computing Model of Reward-Modulated Motor Learning and Automaticity.
Ryan Pyle,Robert Rosenbaum +1 more
TL;DR: A novel learning algorithm is developed that models the interaction between reinforcement and unsupervised learning observed in experiments and converges on simulated motor tasks on which previous reservoir computing algorithms fail and reproduces experimental findings that relate Parkinson's disease and its treatments to motor learning.
13
Circuit models of low dimensional shared variability in cortical networks
TL;DR: Circuit models with spatio-temporal excitatory and inhibitory interactions generate population variability that captures recorded neuronal activity across cognitive states that provides a critical link between measured cortical circuit structure and recorded population activity.
7
Circuit-based models of shared variability in cortical networks
TL;DR: In this paper, the authors analyze population recordings from the visual pathway where directed attention differentially modulates shared variability within and between areas, which is difficult to explain with externally imposed variability, and show that if the spatial and temporal scales of inhibitory coupling match physiology, network models capture the low dimensional shared variability of population data.
6