Yoichi Tsujisawa
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:
where the observable transport field loses memory of the past, but the internal adaptive coupling structure continues to preserve historical information.
Forward and backward adaptive transport sweeps produce different final transport states.
This demonstrates:
- path dependence
- adaptive hysteresis
- memory retention in transport dynamics
Observable transport quantities may converge toward identical values while coupling topology remains different.
This indicates that:
- transport memory
- topology memory
are distinct physical layers.
A large subset of simulations exhibits:
- near-zero transport hysteresis
- strong topology hysteresis
indicating persistent hidden structural memory.
Memory persistence is not purely transient.
Perturbation studies reveal:
- metastable memory basins
- graded memory survival
- partial memory erosion
- memory collapse regions
under external perturbations.
Selected topology-only states preserve structural memory over long relaxation trajectories even after transport observables fully converge.
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.
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/
Adaptive transport hysteresis loop.
Transport-topology hysteresis memory map.
Topology-only memory phase space.
Topology memory lifetime persistence.
Memory survival probability under perturbation.
Topology-only memory survival landscape.
Recommended:
- Python 3.10+
- Windows PowerShell
pip install -r requirements.txt
.\run_all.ps1
scripts/04c_analyze_hysteresis_and_memory_tanhbounded.py
scripts/06_run_basin_perturbation_trials.py
scripts/06b_extract_topology_only_memory_from_hysteresis.py
scripts/07_run_memory_lifetime_analysis.py
scripts/08_run_memory_basin_stability.py
scripts/09_build_phase13_interim_summary_tables.py
H_phi = |phi_forward - phi_backward|
Measures path dependence in observable transport fields.
H_spectral = |rho(C_forward) - rho(C_backward)|
Measures hysteresis in coupling topology structure using spectral radius differences.
dC_ij/dt = alpha * tanh(phi_i * phi_j) - gamma * C_ij
Tanh-bounded adaptive coupling evolution used throughout Phase13.
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.
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
If you use this work, please cite:
Yoichi Tsujisawa,
"SRFM Quantum Phase13: Adaptive Transport Phase Memory and Persistent Topology-Only Structural Memory"
MIT License
Yoichi Tsujisawa
SRFM (Self-Regulating Field Model) Research Series