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ZDB-FIG-210430-12
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Chicchi et al., 2021 - Reconstruction scheme for excitatory and inhibitory dynamics with quenched disorder: application to zebrafish imaging
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Fig. 1

a Schematic outline of the reconstruction procedure. The global fields YE(t) and YI(t) constitute the inputs of the model in the HMF approximation (i). Different choices for the probability distributions PE(k), PI(k), and P(a) are iteratively tested in order to find the best match between the input fields and the reconstructed fields, as obtained by using the equations displayed in the red box (ii). b Outcome of the reconstruction procedure: the true probability distributions of a synthetic network are compared with those obtained with the proposed reconstruction method. A random network with N = 5000 is considered here. The fraction of inhibitory neurons is set to fI = 0.05. The number of classes defined in the HMF approximation for the in-degree and the external current is L = 250 and M = 250 respectively. c Comparison between the true global fields and the ones obtained via the reconstructed distributions. The plot in the inset is a zoom in of a peak. D-E) Outputs of the reconstruction are compared with the true external current probability distribution P(a) and the true in-degree distribution PE(k) for the excitatory neurons of the same network; the network is made of N = 1000 neurons of which a fraction fI = 0.2 are inhibitors. In the HMF approximation one hundred classes have been defined for both the in-degree and external current, namely, L = 100 and M = 100. In D) the correct fraction of inhibitory neurons is taken into account, while in E) the inhibitory neuron effects are not considered

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This image is the copyrighted work of the attributed author or publisher, and ZFIN has permission only to display this image to its users. Additional permissions should be obtained from the applicable author or publisher of the image. Full text @ J Comput Neurosci