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May 26, 20260 citationsOpen Access

Discrete Prime-Aligned Hex-Hive Topologies, Continuous Hopf Phase Transport, and Thermodynamic Stability in Recurrent Dynamical Systems

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LAL. Charles Allard

Key Points

  • The research aims to investigate the limitations of traditional deep learning models in high-dimensional spaces.
  • Analyzed the impact of linear operations in deep learning on multi-agent networks.
  • Examined spatial crowding and computational bottlenecks in Euclidean spaces.
  • Explored hierarchical structures in semantic datasets.
  • High-dimensional spaces led to severe spatial crowding and topological distortion.
  • Traditional Cartesian systems failed to capture the complexity of agentic networks.
  • New topological approaches showed promise for better representation.

Abstract

The historical scaling of deep learning models and decentralized multi-agent routing networks has relied almost exclusively on linear operations mapped within flat, Euclidean geometric spaces. However, as the dimensionality of representations and the topological complexity of agentic networks scale, these Cartesian coordinate systems suffer from severe spatial crowding, topological distortion, and unsustainable computational bottlenecks. In high-dimensional vector spaces, Euclidean distances fail to capture the hierarchical, scale-free branching structures native to semantic datasets, leading to representations that crowd near the boundaries of flat manifolds.

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Cite This Study

L. Charles Allard (2026) studied this question.

synapsesocial.com/papers/6a153a88b5d9c58d83e8d098https://doi.org/10.5281/zenodo.20370067
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