Universal organizational regularity showing weight geometry governs functional memory in complex systems across biological, ecological, social, and technological domains. Activation: weight geometry, functional memory, complex systems, interaction strength, hierarchical organization.
Scanned 9/11/2026
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---
name: weight-geometry-functional-memory
description: Universal organizational regularity showing weight geometry governs functional memory in complex systems across biological, ecological, social, and technological domains. Activation: weight geometry, functional memory, complex systems, interaction strength, hierarchical organization.
---
## Overview
Paper ID: arXiv:2606.25826v1
Title: Weight geometry governs functional memory in complex systems
Authors: Elkaïoum M. Moutuou, Habib Benali
Published: 2026-06-24
Categories: cond-mat.dis-nn, cs.SI, math-ph, q-bio.NC
URL: https://arxiv.org/abs/2606.25826v1
## Core Discovery
**Universal organizational regularity**: In every complex system studied (biological, ecological, social, technological), real interaction strengths organize memory at greater hierarchical depths than topology alone.
## Key Insight
Functional memory in complex systems depends on **weight geometry** (interaction strength distribution), not just **topology** (connection structure).
## Systems Studied
- Gene regulatory networks
- Neural circuits
- Ecological networks
- Social networks
- Transportation infrastructures
## Technical Framework
- Weight geometry analysis of interaction strength distributions
- Functional memory quantification
- Hierarchical organization depth measurement
- Cross-domain comparison methodology
## Key Concepts
- **Functional Memory**: System's ability to retain and use information
- **Weight Geometry**: Spatial distribution of interaction strengths
- **Hierarchical Depth**: Level of organizational complexity
- **Interaction Strength**: Magnitude of connections/flows
## Applications
- Neural circuit design optimization
- Gene regulatory network engineering
- Infrastructure network planning
- Social network intervention strategies
## Activation Keywords
- weight geometry
- functional memory
- complex system memory
- interaction strength distribution
- network weight analysis
- hierarchical memory organization
## Related Skills
- synaptic-weight-distributions-plasticity-geometry
- neural-manifolds-crystallized-embeddings
- effective-plasticity
- neural-population-dynamics
## Pitfalls
- Weight distribution estimation requires complete network data
- Hierarchical depth measurement may vary by system type
- Real systems vs idealized models discrepancy
## References
- Paper: https://arxiv.org/pdf/2606.25826v1.pdfIs this your skill, or is something wrong with this listing? Request removal or report an issue. Author removals are honored within 72 hours.
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