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Temporal Complexity and Self-Organization in an Exponential Dense Associative Memory Model

ArXivSource

Marco Cafiso, Paolo Paradisi

nlin.AO
physics.app-ph
physics.comp-ph
physics.data-an
stat.ML
|
Jan 16, 2026
2,291 views

One-line Summary

The study explores the self-organizing dynamics and temporal complexity of a stochastic exponential dense associative memory model, showing how noise intensity and memory load influence these behaviors.

Plain-language Overview

This research investigates how a type of neural network model, called a Dense Associative Memory (DAM) model, behaves over time. The study focuses on how the model self-organizes and transitions between order and disorder, which is key to understanding complex systems. By looking at how often and in what ways these transitions occur, the researchers found that certain conditions, like noise levels and the amount of information stored, significantly affect these behaviors. The findings suggest that the model can spontaneously organize itself under certain conditions, which is important for both artificial intelligence and understanding the brain.

Technical Details