The integrate-and-fire model is an oft-used model to describe biological oscillators. In their seminal work, Mirollo and Strogatz discovered important conditions that guarantee synchronization between N-oscillators. This paper explores a wider variety of conditions that determine synchronicity. We examine different types of action potential curves and we break from conventional assumptions of identical oscillators. We prove various conditions for which synchrony will or will not occur
We propose a new integrate-and-fire model as a single neuron model. We study a globally coupled nois...
ACKNOWLEDGEMENT A.P. wishes to acknowledge the von Humboldt Foundation for the financial support, wh...
Quantitatively understanding how populations of neurons interact in the brain is one of the great ch...
The integrate-and-fire model is an oft-used model to describe biological oscillators. In their semin...
Synchronization and phase-locking are commonly observed phenomena that occur in biological and physi...
AbstractWe define a subclass of timed automata, called oscillator timed automata, suitable to model ...
We define a subclass of timed automata, called oscillator timed automata, suitable to model biologic...
The integrate-and-fire cardiac pacemaker model of the pulse coupled oscillators was introduced by C....
Many biological systems consisting of a population of oscillators exhibit self-synchronization. In s...
We studied synchronization and clustering in two types of pulse-coupled oscillators, namely, integra...
We analyze the emergence of synchronization in a population of moving integrate-and-fire oscillators...
Spontaneous synchronization of coupled oscillators is a phenomenon that occurs throughout the natura...
Synchronization is a fundamental mechanism in biological networks: examples include networks of neur...
We study how the phenomenon of response to synchronization arises in sets of pulse-coupled dissimila...
Synchronization is a ubiquitous phenomenon in nature and engineering. In this project, we explore th...
We propose a new integrate-and-fire model as a single neuron model. We study a globally coupled nois...
ACKNOWLEDGEMENT A.P. wishes to acknowledge the von Humboldt Foundation for the financial support, wh...
Quantitatively understanding how populations of neurons interact in the brain is one of the great ch...
The integrate-and-fire model is an oft-used model to describe biological oscillators. In their semin...
Synchronization and phase-locking are commonly observed phenomena that occur in biological and physi...
AbstractWe define a subclass of timed automata, called oscillator timed automata, suitable to model ...
We define a subclass of timed automata, called oscillator timed automata, suitable to model biologic...
The integrate-and-fire cardiac pacemaker model of the pulse coupled oscillators was introduced by C....
Many biological systems consisting of a population of oscillators exhibit self-synchronization. In s...
We studied synchronization and clustering in two types of pulse-coupled oscillators, namely, integra...
We analyze the emergence of synchronization in a population of moving integrate-and-fire oscillators...
Spontaneous synchronization of coupled oscillators is a phenomenon that occurs throughout the natura...
Synchronization is a fundamental mechanism in biological networks: examples include networks of neur...
We study how the phenomenon of response to synchronization arises in sets of pulse-coupled dissimila...
Synchronization is a ubiquitous phenomenon in nature and engineering. In this project, we explore th...
We propose a new integrate-and-fire model as a single neuron model. We study a globally coupled nois...
ACKNOWLEDGEMENT A.P. wishes to acknowledge the von Humboldt Foundation for the financial support, wh...
Quantitatively understanding how populations of neurons interact in the brain is one of the great ch...