Self-adaptively gated associative memory networks.
ORAL · Invited
Abstract
Synaptic firing in living organisms is modulated through molecules, i.e.
neuropeptides, that can communicate neurons many synapses away from
each other. Here we study the effects of multiplicative, neuropeptide-like
gating on associative memory retrieval using a gated RNN. Using
numerical simulations and dynamical mean field theory, we find that
gating enhances the memory capacity of a graded time continuous
Hopfield model and possibly gives rise to generalization by the appearance
of continuous attractors around the fixed-point patterns.
neuropeptides, that can communicate neurons many synapses away from
each other. Here we study the effects of multiplicative, neuropeptide-like
gating on associative memory retrieval using a gated RNN. Using
numerical simulations and dynamical mean field theory, we find that
gating enhances the memory capacity of a graded time continuous
Hopfield model and possibly gives rise to generalization by the appearance
of continuous attractors around the fixed-point patterns.
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Presenters
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Suriyanarayanan Vaikuntanathan
- University of Chicago