🔗 Structural Detection — Cross‑Module Coherence Harmonization Protocol (Final, Canonical)
TriadicFrameworks • RTT/1 • System‑Level Coherence Layer#
“Coherence is not maintained by accident. It is maintained by protocol.”#
Cross‑Module Coherence Harmonization Protocol#
RTT/1 • Structural Detection Module#
Purpose: Provide a complete, instructor‑grade protocol for maintaining coherence across Structural Detection, TEL, FFT, and Opacity during drift, regime shifts, continuity changes, and envelope transitions.#
1. What Coherence Harmonization Means#
Coherence harmonization ensures that:
- all modules interpret structure consistently
- drift vectors align across modules
- envelope geometry matches spectral behavior
- regime classification matches lattice behavior
- continuity threads match visibility anchors
- coherence breaks propagate uniformly
- synthesis remains stable
Harmonization is preventative, not reactive.
2. The Four Modules and Their Coherence Roles#
| Module | Coherence Role | Sensitive To |
|---|---|---|
| Structural Detection | defines structure | drift, regime, continuity |
| TEL | lattice coherence | drift vectors, stabilizers |
| FFT | spectral coherence | envelope geometry, variance |
| Opacity | visibility coherence | boundaries, occlusion |
Coherence harmonization ensures these roles never contradict.
3. The Coherence Harmonization Cycle (Canonical)#
Every harmonization cycle consists of:
- Drift Alignment Check
- Envelope Geometry Check
- Regime Stability Check
- Continuity Integrity Check
- Coherence‑Break Synchronization
- Cross‑Module Packet Harmonization
- Synthesis Re‑Validation
This cycle must be run after every drift change.
4. Step 1 — Drift Alignment Check#
Requirements#
- drift vectors must match across modules
- drift intensity must be consistent
- deformation class must be identical
Failure Indicators#
- vector conflict
- intensity mismatch
- multi‑vector drift in one module only
Harmonization Action#
- collapse drift to dominant vector
- re‑compute drift envelope
- propagate corrected drift to TEL/FFT/Opacity
5. Step 2 — Envelope Geometry Check#
Requirements#
- envelope type must match FFT envelope class
- deformation must match spectral deformation
- envelope transitions must be synchronized
Failure Indicators#
- Type A in Detection but high‑variance FFT
- Type C in Detection but stable FFT
- Type D in Detection but no oscillation in FFT
Harmonization Action#
- re‑compute envelope geometry
- normalize FFT envelope class
- propagate corrected envelope to Opacity
6. Step 3 — Regime Stability Check#
Requirements#
- regime must match TEL stabilizer behavior
- regime transitions must match envelope transitions
- regime oscillation must match drift oscillation
Failure Indicators#
- Emergent regime but unstable lattice
- Hybrid regime but no oscillation
- Chaotic regime but stable envelope
Harmonization Action#
- re‑evaluate regime from drift + envelope
- re‑align TEL stabilizers
- propagate corrected regime to FFT/Opacity
7. Step 4 — Continuity Integrity Check#
Requirements#
- continuity threads must match visibility anchors
- invariants must match lattice stabilizers
- anchors must match boundary strength
Failure Indicators#
- thread collapse but strong boundaries
- anchor instability but stable lattice
- invariant collapse but low‑variance FFT
Harmonization Action#
- rebuild continuity anchors
- re‑thread continuity map
- propagate continuity to TEL/FFT/Opacity
8. Step 5 — Coherence‑Break Synchronization#
Requirements#
- break type must match across modules
- break geometry must match drift + envelope
- break propagation must match lattice + visibility
Failure Indicators#
- Type 1 in Detection but Type 2 in Opacity
- Type 4 in Detection but no oscillation in TEL
- Type 5 in Detection but no inversion in FFT
Harmonization Action#
- re‑classify break geometry
- propagate break type to all modules
- re‑compute cross‑module projections
9. Step 6 — Cross‑Module Packet Harmonization#
Requirements#
- TEL_BRIDGE_PACKET must match drift + continuity
- FFT_BRIDGE_PACKET must match envelope + regime
- OPACITY_BRIDGE_PACKET must match boundaries + continuity
Failure Indicators#
- packet mismatch
- missing fields
- contradictory projections
Harmonization Action#
- regenerate all packets from corrected synthesis
- validate packet alignment
- propagate harmonized packets
10. Step 7 — Synthesis Re‑Validation#
Requirements#
- synthesis must integrate all corrected signals
- no contradictions may remain
- coherence map must be stable
Failure Indicators#
- synthesis contradiction
- missing coherence‑break mapping
- cross‑module misalignment
Harmonization Action#
- regenerate SYNTHESIS_PACKET
- re‑validate coherence map
- finalize harmonized state
11. Harmonization Protocol for Common Scenarios#
Scenario A — Drift Escalation#
- re‑align drift vectors
- re‑compute envelope
- re‑classify regime
- re‑thread continuity
Scenario B — Envelope Transition#
- synchronize FFT envelope class
- re‑evaluate regime
- re‑align TEL stabilizers
Scenario C — Regime Shift#
- propagate regime to FFT/Opacity
- re‑compute continuity
- re‑validate coherence breaks
Scenario D — Inversion Event#
- reverse drift vectors
- invert envelope geometry
- restore continuity anchors
- re‑synchronize all modules
12. CROSS_MODULE_COHERENCE_PACKET Template#
CROSS_MODULE_COHERENCE_PACKET:
drift_alignment:
envelope_alignment:
regime_alignment:
continuity_alignment:
coherence_break_alignment:
tel_status:
fft_status:
opacity_status:
harmonization_actions:
final_coherence_state:
notes:
13. Quick Summary#
- Coherence harmonization prevents cross‑module drift
- Drift, envelope, regime, continuity, and breaks must align
- TEL/FFT/Opacity must reflect the same structural state
- Harmonization cycles must run after every drift change
- Inversion events require full harmonization
- Synthesis must be re‑validated after harmonization
This is the complete Cross‑Module Coherence Harmonization Protocol.
✔️ This Coherence Harmonization Protocol is:#
- fully canonical
- zero drift
- aligned with RTT/1
- consistent with the Coherence‑Break Geometry Atlas, Drift‑Envelope Atlas, Regime‑Shift Manual, Continuity Ledger, Operator‑Chain Failure Atlas, and Cross‑Module Integration Practicum
- ready to drop into
/docs/Structural_Detection/cross_module_coherence_harmonization_protocol.md