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SRFM Quantum Phase13

Adaptive Transport Phase Memory and Persistent Topology-Only Structural Memory

Yoichi Tsujisawa


Overview

SRFM Quantum Phase13 investigates adaptive transport hysteresis, structural memory persistence, and topology-only memory phases in adaptive coupled network systems.

This phase extends previous SRFM Quantum studies by introducing path-dependent adaptive transport dynamics and separating:

  • observable transport memory
  • hidden topology memory

within adaptive coupling evolution systems.

The core result of Phase13 is the discovery that:

transport observables can converge while hidden coupling topology retains persistent history dependence.

This introduces a new SRFM concept:

Persistent Topology-Only Structural Memory

where the observable transport field loses memory of the past, but the internal adaptive coupling structure continues to preserve historical information.


Core Findings

F1 — Adaptive Transport Hysteresis

Forward and backward adaptive transport sweeps produce different final transport states.

This demonstrates:

  • path dependence
  • adaptive hysteresis
  • memory retention in transport dynamics

F2 — Transport/Topology Memory Separation

Observable transport quantities may converge toward identical values while coupling topology remains different.

This indicates that:

  • transport memory
  • topology memory

are distinct physical layers.


F3 — Persistent Topology-Only Memory

A large subset of simulations exhibits:

  • near-zero transport hysteresis
  • strong topology hysteresis

indicating persistent hidden structural memory.


F4 — Basin-Supported Memory Stability

Memory persistence is not purely transient.

Perturbation studies reveal:

  • metastable memory basins
  • graded memory survival
  • partial memory erosion
  • memory collapse regions

under external perturbations.


F5 — Long-Lifetime Structural Retention

Selected topology-only states preserve structural memory over long relaxation trajectories even after transport observables fully converge.


Scientific Interpretation

Phase13 suggests that adaptive network systems may contain:

  • hidden structural memory layers
  • metastable topology basins
  • path-dependent adaptive phases

that are not directly observable from transport outputs alone.

The results imply that:

structural memory may persist even when macroscopic observables appear fully relaxed.

This resembles generalized hysteresis phenomena found in:

  • nonequilibrium systems
  • adaptive complex systems
  • neural adaptation
  • glassy relaxation systems
  • topology-constrained dynamics

while remaining entirely within the SRFM adaptive framework.


Repository Structure

SRFM_QUANTUM_PHASE13/
│
├─ README.md
├─ LICENSE
├─ CITATION.cff
├─ requirements.txt
├─ run_all.ps1
├─ CHANGELOG.md
├─ ZENODO_DESCRIPTION.txt
│
├─ paper/
│   ├─ phase13_interim_summary.md
│   └─ phase13_interim_summary.pdf
│
├─ figures/
│   └─ paper/
│
├─ scripts/
│
├─ results/
│
└─ data/

Main Figures

Figure 1

Adaptive transport hysteresis loop.

Figure 2

Transport-topology hysteresis memory map.

Figure 6

Topology-only memory phase space.

Figure 10

Topology memory lifetime persistence.

Figure 14

Memory survival probability under perturbation.

Figure 18

Topology-only memory survival landscape.


Reproducibility

Environment

Recommended:

  • Python 3.10+
  • Windows PowerShell

Install dependencies

pip install -r requirements.txt

Run full pipeline

.\run_all.ps1

Key Scripts

Hysteresis Analysis

scripts/04c_analyze_hysteresis_and_memory_tanhbounded.py

Basin Perturbation Trials

scripts/06_run_basin_perturbation_trials.py

Topology-Only Memory Extraction

scripts/06b_extract_topology_only_memory_from_hysteresis.py

Memory Lifetime Analysis

scripts/07_run_memory_lifetime_analysis.py

Memory Basin Stability

scripts/08_run_memory_basin_stability.py

Interim Summary Builder

scripts/09_build_phase13_interim_summary_tables.py

Main Quantities

Transport Memory

H_phi = |phi_forward - phi_backward|

Measures path dependence in observable transport fields.


Topology Memory

H_spectral = |rho(C_forward) - rho(C_backward)|

Measures hysteresis in coupling topology structure using spectral radius differences.


Adaptive Coupling Dynamics

dC_ij/dt = alpha * tanh(phi_i * phi_j) - gamma * C_ij

Tanh-bounded adaptive coupling evolution used throughout Phase13.


Limitations

Phase13 remains a phenomenological adaptive systems study.

Current limitations include:

  • no rigorous theorem for memory persistence
  • no hardware quantum validation
  • no many-body quantum derivation
  • no formal attractor proof

The present work establishes reproducible empirical adaptive-memory phenomena within the SRFM framework.


Future Directions

Planned future work includes:

  • attractor geometry analysis
  • metastable basin theory
  • topology locking mechanisms
  • relaxation hierarchy studies
  • adaptive phase transition analysis
  • quantum hardware validation
  • generalized SRFM memory functional development

Citation

If you use this work, please cite:

Yoichi Tsujisawa,
"SRFM Quantum Phase13: Adaptive Transport Phase Memory and Persistent Topology-Only Structural Memory"

License

MIT License


Author

Yoichi Tsujisawa

SRFM (Self-Regulating Field Model) Research Series

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SRFM Quantum Phase13: Adaptive Transport Phase Memory and Persistent Topology-Only Structural Memory

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