Semantic learning in autonomously active recurrent neural networks
C. Gros, G. Kaczor

TL;DR
This paper explores how autonomous recurrent neural networks can learn semantic correlations between internal activity and external stimuli through transient state dynamics and unsupervised diffusive learning signals.
Contribution
It introduces a novel framework where autonomous neural activity learns semantic relations via transient states and a diffusive learning signal during sensitive transition periods.
Findings
The model performs nonlinear independent component analysis autonomously.
External stimuli influence internal dynamics during transition periods.
The system demonstrates emergent cognitive capabilities from neural ensemble competition.
Abstract
The human brain is autonomously active, being characterized by a self-sustained neural activity which would be present even in the absence of external sensory stimuli. Here we study the interrelation between the self-sustained activity in autonomously active recurrent neural nets and external sensory stimuli. There is no a priori semantical relation between the influx of external stimuli and the patterns generated internally by the autonomous and ongoing brain dynamics. The question then arises when and how are semantic correlations between internal and external dynamical processes learned and built up? We study this problem within the paradigm of transient state dynamics for the neural activity in recurrent neural nets, i.e. for an autonomous neural activity characterized by an infinite time-series of transiently stable attractor states. We propose that external stimuli will be…
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