We use upper triangular matrices as abstract representations of neuronal networks and directly manipulate their eigenspectra and non-normality to explore different regimes of transient amplification. Counter–intuitively, manipulating the imaginary distribution can lead to highly amplifying regimes. This is noteworthy, because biological networks are constrained by Dale’s law and the non-existence of neuronal self-loops, limiting the range of manipulations in the real dimension. Within these constraints we can further manipulate transient amplification by controlling global inhibition
The brain consists of complex interacting networks of excitatory and inhibitory neurons. The spatio-...
The brain consists of complex interacting networks of excitatory and inhibitory neurons. The spatio-...
ised ted ine lesm aye problem directly into the dynamics of the network. The proposed method differs...
Neuronal networks encode information through patterns of activity that define the networks' function...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
In dynamical models of cortical networks, the recurrent con-nectivity can amplify the input given to...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
International audienceThe activity of a neuronal network, characterized by action potentials (spikes...
Living neuronal networks in dissociated neuronal cultures are widely known for their ability to gene...
We study the effect of network structure on the dynamical response of networks of coupled discrete-s...
<div><p>Understanding the relationship between external stimuli and the spiking activity of cortical...
The computational abilities of recurrent networks of neurons with a linear activation function above...
The mathematical theory of pattern formation in electrically coupled networks of excitable neurons f...
The brain consists of complex interacting networks of excitatory and inhibitory neurons. The spatio-...
The brain consists of complex interacting networks of excitatory and inhibitory neurons. The spatio-...
ised ted ine lesm aye problem directly into the dynamics of the network. The proposed method differs...
Neuronal networks encode information through patterns of activity that define the networks' function...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
In dynamical models of cortical networks, the recurrent con-nectivity can amplify the input given to...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
In dynamical models of cortical networks, the recurrent connectivity can amplify the input given to ...
International audienceThe activity of a neuronal network, characterized by action potentials (spikes...
Living neuronal networks in dissociated neuronal cultures are widely known for their ability to gene...
We study the effect of network structure on the dynamical response of networks of coupled discrete-s...
<div><p>Understanding the relationship between external stimuli and the spiking activity of cortical...
The computational abilities of recurrent networks of neurons with a linear activation function above...
The mathematical theory of pattern formation in electrically coupled networks of excitable neurons f...
The brain consists of complex interacting networks of excitatory and inhibitory neurons. The spatio-...
The brain consists of complex interacting networks of excitatory and inhibitory neurons. The spatio-...
ised ted ine lesm aye problem directly into the dynamics of the network. The proposed method differs...