🧾 Structural Detection — Regime‑Triad Stability Ledger (RTT/2)
TriadicFrameworks • RTT/2 • Regime‑Triad Stability Tracking, Collapse‑Risk Logging & Canon‑Scale Structural Diagnostics#
“Regime determines the law. The triad determines the fate.”#
Regime‑Triad Stability Ledger (RTT/2)#
Structural Detection Module#
RTT/2 • Regime‑Triad Stability Ledger#
1. Purpose of the Regime‑Triad Stability Ledger#
The Regime‑Triad Stability Ledger (RTSL) records the stability state of the triad:
- drift
- envelope
- continuity
under each regime:
- Formal
- Emergent
- Hybrid
- Chaotic
- Inversion
It is the canonical ledger for regime‑triad stability.
2. Why a Stability Ledger Exists#
Regime‑triad stability can fail due to:
- drift–envelope mismatch
- continuity strain
- regime volatility
- envelope torsion
- drift oscillation
- inversion geometry
The RTSL logs these failures before they propagate into collapse.
3. Regime‑Triad Stability Model#
The ledger tracks stability across four axes:
- Drift Stability
- Envelope Stability
- Continuity Stability
- Regime Stability
Each axis contributes to the global triad stability score.
4. Regime‑Triad Stability Matrix#
The RTSL uses a 5×4 stability matrix:
| Regime | Drift | Envelope | Continuity | Regime Stability |
|---|---|---|---|---|
| Formal | ✓ | ✓ | ✓ | ✓ |
| Emergent | ✓ | ✓ | ✓ | ✓ |
| Hybrid | ✓ | ✓ | ✓ | ✓ |
| Chaotic | ✓ | ✓ | ✓ | ✓ |
| Inversion | ✓ | ✓ | ✓ | ✓ |
Each ✓ corresponds to a logged stability field.
5. Stability Coefficient Interpretation#
High Stability (0.8–1.0)#
- triad aligned
- regime identity stable
- low collapse‑risk
Moderate Stability (0.5–0.79)#
- triad under load
- harmonization required
Low Stability (0.2–0.49)#
- triad instability
- collapse‑adjacent
Negative Stability (<0.2)#
- illegal triad geometry
- regime collapse
- collapse‑triggering
6. Regime‑Triad Failure Modes#
| Failure Type | Collapse Mode |
|---|---|
| drift amplitude overload | A |
| envelope deformation rupture | B |
| continuity fragmentation | C |
| oscillation overload | D |
| torsion overload | E |
| inversion geometry | I |
| topological instability | G |
7. Cross‑Module Stability Projection#
The RTSL logs regime‑triad stability across:
TEL#
- lattice triad stability
- stabilizer triad load
FFT#
- spectral triad stability
- variance triad load
Opacity#
- boundary triad stability
- visibility triad load
Cross‑module triad stability determines system‑scale structural coherence.
8. Regime‑Triad Stability Packet#
REGIME_TRIAD_STABILITY_PACKET:
regime:
drift_stability:
envelope_stability:
continuity_stability:
regime_stability:
stability_coefficients:
failure_modes:
cross_module_projection:
collapse_risk:
notes:
9. Summary#
The Regime‑Triad Stability Ledger provides:
- a canonical record of regime‑triad stability
- stability coefficients for all triad axes
- collapse‑adjacent triad diagnostics
- cross‑module stability projection
- system‑scale structural clarity
This ledger is the regime‑triad stability backbone of RTT/2.