<p>Networks of loosely coupled oscillators of different size exhibit different resonance characteristics that manifest as peaks in their spectral response. One method to probe the resonance properties is to drive the networks with repetitive, periodic stimuli over a range of frequencies (<i>f1 < f2 < f3</i>). For each network, the driving frequency corresponding to the maximal response power is deemed to be closest to the resonance frequency of that network. For example, f3 corresponds to the resonance of the top network, while f1 is the resonance if the bottom network. Here we test the hypothesis that as network size increases, the resonance frequency monotonically decreases.</p
<p>The 6 networks have all been constructed using the connection probability profile shown in row-2,...
<div><p>Oscillations in electrical activity are a characteristic feature of many brain networks and ...
<p><b> as the number </b><b> of stored patterns is varied, suggesting that the low-</b><b> resonance...
Neural oscillations occur within a wide frequency range with different brain regions exhibiting reso...
<p><b>A</b> Increasing the size of sub-networks (from 2x2 to 100x100) increased the two main connect...
Across physics, biology, and engineering, the collective dynamics of oscillatory networks often evol...
We investigate the phenomenon of vibrational resonance (VR) in neural populations, whereby weak low-...
The oscillatory activities form neural networks are involved in many behaviors, and animals need to ...
Interestingly the central frequency peak of the birdsong increases with network size then have a pla...
In this paper different topologies of populations of FitzHugh–Nagumo neurons have been introduce to ...
Coupled excitable elements in the presence of noise can exhibit oscillatory behavior with non-trivia...
We examine the effect of increasing both system size and number of active OP populations on the osci...
We have investigated numerically the behaviours of identical FitzHugh-Nagumo systems, which are coup...
Panels A-C show the frequency of temporally-regular, chimera, and temporally-irregular states with n...
We rst demonstrate how to quantify the information conveyed in temporal ring patterns of neurons. We...
<p>The 6 networks have all been constructed using the connection probability profile shown in row-2,...
<div><p>Oscillations in electrical activity are a characteristic feature of many brain networks and ...
<p><b> as the number </b><b> of stored patterns is varied, suggesting that the low-</b><b> resonance...
Neural oscillations occur within a wide frequency range with different brain regions exhibiting reso...
<p><b>A</b> Increasing the size of sub-networks (from 2x2 to 100x100) increased the two main connect...
Across physics, biology, and engineering, the collective dynamics of oscillatory networks often evol...
We investigate the phenomenon of vibrational resonance (VR) in neural populations, whereby weak low-...
The oscillatory activities form neural networks are involved in many behaviors, and animals need to ...
Interestingly the central frequency peak of the birdsong increases with network size then have a pla...
In this paper different topologies of populations of FitzHugh–Nagumo neurons have been introduce to ...
Coupled excitable elements in the presence of noise can exhibit oscillatory behavior with non-trivia...
We examine the effect of increasing both system size and number of active OP populations on the osci...
We have investigated numerically the behaviours of identical FitzHugh-Nagumo systems, which are coup...
Panels A-C show the frequency of temporally-regular, chimera, and temporally-irregular states with n...
We rst demonstrate how to quantify the information conveyed in temporal ring patterns of neurons. We...
<p>The 6 networks have all been constructed using the connection probability profile shown in row-2,...
<div><p>Oscillations in electrical activity are a characteristic feature of many brain networks and ...
<p><b> as the number </b><b> of stored patterns is varied, suggesting that the low-</b><b> resonance...