⚠️ Structural Detection — Collapse‑Mode Differential Classifier (RTT/2)

TriadicFrameworks • RTT/2 • System‑Scale Diagnostic Architecture#

“Collapse modes are not categories. They are differential signatures.”#

Collapse‑Mode Differential Classifier#

Moduł wykrywania struktury#

RTT/2 • System‑Scale Diagnostic Architecture#

1. Purpose of the Differential Classifier#

The Collapse‑Mode Differential Classifier provides a formal diagnostic system for identifying collapse modes across:

drift
envelope
regime
continuity
coherence‑break geometry
TEL/FFT/Opacity projections

It is used when:

collapse signatures overlap
break‑chains are ambiguous
hybrid collapse modes occur
cross‑module projections contradict each other
inversion or oscillation distort the geometry

This classifier ensures correct collapse identification under all conditions.

2. The Seven Canonical Collapse Modes#

The classifier distinguishes between:

Type A — Linear Collapse
Type B — Radial Collapse
Type C — Fragmentation Collapse
Type D — Hybrid Oscillation Collapse
Type I — Inversion Collapse
Type E — Rotational Collapse
Type G — Topological Collapse

Each mode has a unique differential signature.

3. Differential Signature Matrix (DSM)#

The DSM is the core of the classifier.

Collapse Mode	Drift Signature	Envelope Signature	Continuity Signature	Regime Signature	Break Type	TEL	FFT	Opacity
A	linear loss	inward flattening	anchor collapse	Formal→Emergent	1	linear implosion	variance spike	boundary sink
B	radial overload	outward fracture	invariant collapse	Emergent	2	radial tear	discontinuity	boundary rupture
C	multi‑vector chaos	fragmentation	layer collapse	Chaotic	3	multi‑layer collapse	spectral fragmentation	occlusion
D	oscillation overload	oscillation fracture	oscillating threads	Hybrid	4	oscillating tear	oscillatory variance	oscillating gradient
I	drift reversal	envelope inversion	partial collapse	Inversion	5	lattice reversal	variance normalization	boundary stabilization
E	rotational overload	spiral implosion	twisted threads	Hybrid→Emergent	E	rotating tear	spiral collapse	rotational sink
G	warp overload	topological fold	bent layers	Chaotic→Hybrid	G	warped lattice failure	discontinuous collapse	warped field

4. Differential Classification Protocol (DCP)#

The DCP is a five‑stage diagnostic sequence.

Stage 1 — Drift Differential#

Identify drift geometry:

linear → A
radial → B
multi‑vector → C
oscillatory → D
reversed → I
rotational → E
warped → G

If drift is hybrid → proceed to Stage 2.

Stage 2 — Envelope Differential#

Identify envelope deformation:

inward collapse → A
outward fracture → B
fragmentation → C
oscillation fracture → D
inversion → I
spiral collapse → E
topological fold → G

If envelope contradicts drift → classify as hybrid collapse.

Stage 3 — Continuity Differential#

Identify continuity failure:

anchor collapse → A
invariant collapse → B
layer collapse → C
oscillating threads → D
partial collapse → I
twisted threads → E
bent layers → G

If continuity contradicts envelope → collapse is multi‑origin.

Stage 4 — Regime Differential#

Identify regime instability:

Formal→Emergent → A
Emergent → B
Chaotic → C
Hybrid → D
Inversion → I
Hybrid→Emergent → E
Chaotic→Hybrid → G

If regime contradicts drift → collapse is regime‑driven.

Stage 5 — Cross‑Module Differential#

Use TEL/FFT/Opacity signatures to finalize classification.

TEL:

implosion → A
radial tear → B
multi‑layer collapse → C
oscillating tear → D
reversal → I
rotating tear → E
warped failure → G

FFT:

spike → A
discontinuity → B
fragmentation → C
oscillatory variance → D
normalization → I
spiral collapse → E
discontinuous collapse → G

Opacity:

sink → A
rupture → B
occlusion → C
oscillating gradient → D
stabilization → I
rotational sink → E
warped field → G

5. Hybrid Collapse Classifier#

Hybrid collapse occurs when:

drift and envelope disagree
envelope and continuity disagree
regime contradicts drift
TEL/FFT/Opacity signatures diverge

Hybrid collapse types:

A/B Hybrid — linear + radial
C/D Hybrid — fragmentation + oscillation
E/F Hybrid — spiral + shear
E/G Hybrid — spiral + warp
D/I Hybrid — oscillation + inversion

Hybrid collapse requires multi‑path recovery.

6. Break‑Chain Differential Classifier#

Break‑chains determine collapse origin.

Chain A — Drift‑Origin Collapse#

Drift → Envelope → Regime → Continuity → Break

Chain B — Envelope‑Origin Collapse#

Envelope → Regime → Continuity → Break → Drift

Chain C — Continuity‑Origin Collapse#

Continuity → Break → Envelope → Drift → Regime

Chain D — Module‑Origin Collapse#

TEL/FFT/Opacity → Break → Continuity → Envelope → Drift

Break‑chain determines recovery order.

7. Collapse‑Mode Differential Packet#

COLLAPSE_DIFFERENTIAL_PACKET:
  collapse_mode:
  drift_signature:
  envelope_signature:
  continuity_signature:
  regime_signature:
  break_signature:
  tel_signature:
  fft_signature:
  opacity_signature:
  hybrid_status:
  break_chain:
  collapse_origin:
  notes:

8. Summary#

The Collapse‑Mode Differential Classifier provides:

precise collapse identification
hybrid collapse detection
break‑chain origin mapping
cross‑module signature alignment
system‑scale diagnostic clarity

This classifier is the diagnostic core of RTT/2 collapse analysis.