activity
20072020
most citedDynamical synapses causing self-organized criticality in neural networks

574 citations · 578 across the 9 of their papers we have counts for

collaborators

9 papers

cs.NE2020★ 2 cited

Evolutionary Selective Imitation: Interpretable Agents by Imitation Learning Without a Demonstrator

Roy Eliya, J. Michael Herrmann

We propose a new method for training an agent via an evolutionary strategy (ES), in which we iteratively improve a set of samples to imitate: Starting with a random set, in every i…

q-bio.NC2018

Statistical models of neural activity, criticality, and Zipf's law

Martino Sorbaro, J. Michael Herrmann, Matthias H. Hennig

In this overview, we discuss the connections between the observations of critical dynamics in neuronal networks and the maximum entropy models that are often used as statistical mo…

math.PR2017

The Abelian distribution

Anna Levina, J. Michael Herrmann

We define the Abelian distribution and study its basic properties. Abelian distributions arise in the context of neural modeling and describe the size of neural avalanches in fully…

cs.NE2015

Critical Parameters in Particle Swarm Optimisation

J. Michael Herrmann, Adam Erskine, Thomas Joyce

Particle swarm optimisation is a metaheuristic algorithm which finds reasonable solutions in a wide range of applied problems if suitable parameters are used. We study the properti…

nlin.AO2015★ 1 cited

The success of complex networks at criticality

Victor Hernandez-Urbina, Tom L. Underwood, J. Michael Herrmann

In spiking neural networks an action potential could in principle trigger subsequent spikes in the neighbourhood of the initial neuron. A successful spike is that which trigger sub…

nlin.AO2015★ 1 cited

Small-world structure induced by spike-timing-dependent plasticity in networks with critical dynamics

Victor Hernandez-Urbina, J. Michael Herrmann

The small-world property in the context of complex networks implies structural benefits to the processes taking place within a network, such as optimal information transmission and…