We study the probabilistic generative models parameterized by feedforward neural networks. An attractor dynamics for probabilistic inference in these models is derived from a mean field approximation for large, layered sigmoidal networks. Fixed points of the dynamics correspond to solutions of the mean field equations, which relate the statistics of each unit to those of its Markov blanket. We establish global convergence of the dynamics by providing a Lyapunov function and show that the dynamics generate the signals required for unsupervised learning. Our results for feedforward networks provide a counterpart to those of Cohen-Grossberg and Hopfield for symmetric networks
Nowadays neural networks are a powerful tool, even if there are few mathematical results that explai...
Abstract—Attractor dynamics is a crucial problem for attractor neural networks, as it is the underli...
Neural networks are able to approximate chaotic dynamical systems when provided with training data t...
We study the probabilistic generative models parameterized by feedforward neural networks. An attrac...
International audienceIn the context of sensory or higher-level cognitive processing, we present a r...
AbstractTriangular dynamical systems can be used to model neural networks of forward type (FNN). In ...
Machine learning, and in particular neural network models, have revolutionized fields such as image,...
In this paper a simple two-layer neural network's model, similar to that, studied by D.Amit and...
This thesis regards the dynamics of neural ensembles, investigated through mathematical models. When...
Dynamical systems driven by strong external signals are ubiquitous in nature and engineering. Here w...
It has been hypothesized that neural network models with cyclic connectivity may be more powerful th...
We study the use of feedforward neural networks (FNN) to develop models of nonlinear dynamical syste...
In this study, we focus on feed-forward neural networks with a single hidden layer. The research tou...
Learning algorithms have been used both on feed-forward deterministic networks and on feed-back stat...
Attractor properties of a popular discrete-time neural network model are illustrated through numeric...
Nowadays neural networks are a powerful tool, even if there are few mathematical results that explai...
Abstract—Attractor dynamics is a crucial problem for attractor neural networks, as it is the underli...
Neural networks are able to approximate chaotic dynamical systems when provided with training data t...
We study the probabilistic generative models parameterized by feedforward neural networks. An attrac...
International audienceIn the context of sensory or higher-level cognitive processing, we present a r...
AbstractTriangular dynamical systems can be used to model neural networks of forward type (FNN). In ...
Machine learning, and in particular neural network models, have revolutionized fields such as image,...
In this paper a simple two-layer neural network's model, similar to that, studied by D.Amit and...
This thesis regards the dynamics of neural ensembles, investigated through mathematical models. When...
Dynamical systems driven by strong external signals are ubiquitous in nature and engineering. Here w...
It has been hypothesized that neural network models with cyclic connectivity may be more powerful th...
We study the use of feedforward neural networks (FNN) to develop models of nonlinear dynamical syste...
In this study, we focus on feed-forward neural networks with a single hidden layer. The research tou...
Learning algorithms have been used both on feed-forward deterministic networks and on feed-back stat...
Attractor properties of a popular discrete-time neural network model are illustrated through numeric...
Nowadays neural networks are a powerful tool, even if there are few mathematical results that explai...
Abstract—Attractor dynamics is a crucial problem for attractor neural networks, as it is the underli...
Neural networks are able to approximate chaotic dynamical systems when provided with training data t...