Extended Anderson Criticality in Heavy-Tailed Neural Networks
arXiv:2202.05527 · doi:10.1103/PhysRevLett.129.048103
Abstract
We investigate the emergence of complex dynamics in networks with heavy-tailed connectivity by developing a non-Hermitian random matrix theory. We uncover the existence of an extended critical regime of spatially multifractal fluctuations between the quiescent and active phases. This multifractal critical phase combines features of localization and delocalization and differs from the edge of chaos in classical networks by the appearance of universal hallmarks of Anderson criticality over an extended region in phase space. We show that the rich nonlinear response properties of the extended critical regime can account for a variety of neural dynamics such as the diversity of timescales, providing a computational advantage for persistent classification in a reservoir setting.
References in corpus (29)
- Critical phenomena in complex networks
- Anderson Transitions
- Emergent complex neural dynamics
- Linking connectivity, dynamics and computations in low-rank recurrent neural networks
- Stimulus-Dependent Suppression of Chaos in Recurrent Neural Networks
- Fractional Fokker--Planck Equation for Nonlinear Stochastic Differential Equations Driven by Non-Gaussian Levy Stable Noises
- Transition to chaos in random neuronal networks
- Around the circular law
- Transition to chaos in random networks with cell-type-specific connectivity
- Topological and Dynamical Complexity of Random Neural Networks
- Dynamics of Random Neural Networks with Bistable Units
- Dynamical and Statistical Criticality in a Model of Neural Tissue
- Statistical field theory for neural networks
- Cavity approach to the spectral density of non-Hermitian sparse matrices
- On the localization transition in symmetric random matrices
- Predicting trends in the quality of state-of-the-art neural networks without access to training or testing data
- Anderson transition on the Bethe lattice: an approach with real energies
- Edge of chaos and avalanches in neural networks with heavy-tailed synaptic weight distribution
- Spectral Theory of Sparse Non-Hermitian Random Matrices
- Level statistics and localization transitions of Lévy matrices
- Spectra of sparse non-Hermitian random matrices: an analytical solution
- Spectrum of non-Hermitian heavy tailed random matrices
- Delocalization of eigenvectors of random matrices with independent entries
- Multifractality and self-averaging at the many-body localization transition
- Localization and universality of eigenvectors in directed random graphs
- Transient chaotic dimensionality expansion by recurrent networks
- Eigenvalue spectra of asymmetric random matrices for multi-component neural networks
- Large Deviations Approach to Random Recurrent Neuronal Networks: Parameter Inference and Fluctuation-Induced Transitions
- First passage leapovers of Lévy flights and the proper formulation of absorbing boundary conditions
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- Energy-information trade-off makes the cortical critical power law the optimal coding
- Neuronal correlations shape the scaling behavior of memory capacity and nonlinear computational capability of reservoir recurrent neural networks