Explosive synchronization in networks of Type-I neurons with electrical synapses
arXiv:2512.03600 · doi:10.1063/5.0314833
Abstract
Explosive synchronization (ES), which was observed in the scale-free network of the Kuramoto model, has been studied widely in the oscillator model. However, investigations of ES in neuronal networks, in spite of their importance in neuroscience, are limited and restricted to specific models. In this work, we explore the nature of the transition to synchronization in a class of neurons, namely Type-I neurons. Leveraging the mapping between Type-I neurons and the Kuramoto model, we investigate whether the conditions known to induce ES in the Kuramoto model also do so in Type-I neurons. The neurons are coupled through electrical synapses and placed on a scale-free and star networks with complete and partial degree-frequency correlation conditions. Our simulations show ES in networks of Quadratic Integrate and Fire (QIF) neurons, the normal form of Type-I neurons, under weak heterogeneity. We further confirm this phenomenon in networks of Morris-Lecar neurons, in the regime of Type-I excitability, under similar conditions to the QIF neurons. Thus, this work establishes a set of universal conditions that allows ES to arise in Type-I neurons.
9 pages, 10 figures. Revised version with additional figures, expanded discussion, and new appendices following reviewer comments
References in corpus (23)
- Spontaneous synchrony in power-grid networks
- Explosive Synchronization Transitions in Scale-free Networks
- Explosive synchronization in adaptive and multilayer networks
- Explosive first-order transition to synchrony in networked chaotic oscillators
- Landau-Ginzburg theory of cortex dynamics: Scale-free avalanches emerge at the edge of synchronization
- Explosive transitions to synchronization in networked phase oscillators
- Disorder induces explosive synchronization
- Emergent explosive synchronization in adaptive complex networks
- An exact firing rate model reveals the differential effects of chemical versus electrical synapses in spiking networks
- Explosive synchronization transitions in complex neural network
- Transition to synchrony in degree-frequency correlated Sakaguchi-Kuramoto model
- Explosive synchronization with partial degree-frequency correlation
- First-order synchronization transition in a large population of strongly coupled relaxation oscillators
- Modeling the Network Dynamics of Pulse-Coupled Neurons
- Beta-rhythm oscillations and synchronization transition in network models of Izhikevich neurons: effect of topology and synaptic type
- Multiplexing induced explosive synchronization in Kuramoto oscillators with inertia
- Spike-timing-dependent plasticity with axonal delay tunes networks of Izhikevich neurons to the edge of synchronization transition with scale-free avalanches
- Explosive synchronization and chimera in interpinned multilayer networks
- Kuramoto model for populations of quadratic integrate-and-fire neurons with chemical and electrical coupling
- Synchronization transition in Sakaguchi-Kuramoto model on complex networks with partial degree-frequency correlation
- Explosive, continuous and frustrated synchronization transition in spiking Hodgkin-Huxley neuronal networks: the role of topology and synaptic interaction
- Explosive synchronization in coupled nonlinear oscillators on multiplex network
- The effects of degree distributions in random networks of Type-I neurons