Self-Averaging and On-line Learning
G. Reents, R. Urbanczik

TL;DR
This paper establishes conditions under which the stochastic dynamics of on-line learning can be approximated by deterministic equations in large systems, highlighting the importance of constraints for self-averaging.
Contribution
It provides theoretical conditions for self-averaging in on-line learning, linking stochastic dynamics to deterministic evolution of order parameters.
Findings
Self-averaging occurs under specific constraints on increment magnitudes.
Without constraints, convergence is only in probability.
The deterministic description simplifies analysis of large-scale on-line learning.
Abstract
Conditions are given under which one may prove that the stochastic dynamics of on-line learning can be described by the deterministic evolution of a finite set of order parameters in the thermodynamic limit. A global constraint on the average magnitude of the increments in the stochastic process is necessary to ensure self-averaging. In the absence of such a constraint, convergence may only be in probability.
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