🜇 Structural Detection — Collapse‑Mode Integrity Harmonizer (RTT/2)

TriadicFrameworks • RTT/2 • Integrity Harmonization Engine, Collapse‑Lifecycle Alignment & Canon‑Scale Structural Correction#

“Integrity is not recorded. Integrity is maintained.”#

Collapse‑Mode Integrity Harmonizer (RTT/2)#

结构检测模块#

RTT/2 • Integrity Harmonization Engine#

1. Purpose of the Integrity Harmonizer#

The Collapse‑Mode Integrity Harmonizer (CMIH) ensures collapse‑mode integrity remains stable across all five structural phases:

1. collapse
2. propagation
3. reversal
4. reassembly
5. stability

It actively corrects:

• geometry mismatches
• propagation divergence
• reversal incompleteness
• reassembly misalignment
• stability failures

It is the active counterpart to the Integrity Ledger (EQ).

2. Why Integrity Must Be Harmonized#

Integrity naturally destabilizes due to:

• drift–envelope mismatch
• continuity strain
• regime volatility
• cross‑module divergence
• incomplete reversal
• partial reassembly

Without harmonization, collapse recovery becomes:

• unstable
• contradictory
• incomplete
• collapse‑adjacent

The CMIH prevents these failures.

3. Integrity Harmonization Architecture#

The CMIH operates across five harmonization layers, one for each integrity phase:

1. Collapse Integrity Harmonization Layer (CIHL)
2. Propagation Integrity Harmonization Layer (PIHL)
3. Reversal Integrity Harmonization Layer (RIHL)
4. Reassembly Integrity Harmonization Layer (ReIHL)
5. Stability Integrity Harmonization Layer (SIHL)

Each layer stabilizes a different part of the collapse lifecycle.

4. Layer 1 — Collapse Integrity Harmonization#

This layer:

• normalizes collapse geometry
• collapses illegal drift
• restores envelope symmetry
• stabilizes regime identity

Output:

COLLAPSE_INTEGRITY_STABLE

5. Layer 2 — Propagation Integrity Harmonization#

This layer:

• collapses propagation divergence
• restores continuity impact geometry
• stabilizes propagation vectors
• neutralizes collapse‑adjacent signatures

Output:

PROPAGATION_INTEGRITY_STABLE

6. Layer 3 — Reversal Integrity Harmonization#

This layer:

• corrects reversal geometry
• stabilizes deformation gradient reversal
• rethreads continuity layers
• aligns reversal with collapse origin

Output:

REVERSAL_INTEGRITY_STABLE

7. Layer 4 — Reassembly Integrity Harmonization#

This layer:

• corrects reassembly geometry
• stabilizes continuity reassembly
• aligns drift–envelope rebinding
• reconstitutes module projections

Output:

REASSEMBLY_INTEGRITY_STABLE

8. Layer 5 — Stability Integrity Harmonization#

This layer:

• validates stability geometry
• harmonizes cross‑module alignment
• stabilizes synthesis compatibility
• prevents re‑collapse

Output:

STABILITY_INTEGRITY_STABLE

9. Integrity Harmonization Sequence (CMIH‑Sequence)#

The harmonizer runs a continuous loop:

1. detect integrity deviation
2. harmonize collapse integrity
3. harmonize propagation integrity
4. harmonize reversal integrity
5. harmonize reassembly integrity
6. harmonize stability integrity
7. recompute global integrity score

Output:

CANON_INTEGRITY_STABLE

10. Collapse‑Mode Integrity Harmonization Matrix#

Each ✓ indicates a harmonization layer is active.

11. Integrity Harmonizer Packet#

INTEGRITY_HARMONIZER_PACKET:
  collapse_integrity_status:
  propagation_integrity_status:
  reversal_integrity_status:
  reassembly_integrity_status:
  stability_integrity_status:
  harmonization_actions:
  global_integrity_score:
  notes:

12. Summary#

The Collapse‑Mode Integrity Harmonizer ensures:

• collapse geometry remains legal
• propagation remains coherent
• reversal remains complete
• reassembly remains aligned
• stability remains verified
• the canon remains structurally unified

This harmonizer is the integrity‑law engine of RTT/2.