Resumen

🗺️ Structural Detection — Collapse‑Propagation Reassembly Map (RTT/2)

TriadicFrameworks • RTT/2 • Propagation→Reassembly Transition Map, Collapse‑Lifecycle Geometry & Canon‑Scale Recovery Topography#

“Propagation is motion. Reassembly is return.”#

Collapse‑Propagation Reassembly Map (RTT/2)#

Structural Detection Module#

RTT/2 • Propagation→Reassembly Transition Map#


1. Purpose of the Collapse‑Propagation Reassembly Map#

The Collapse‑Propagation Reassembly Map (CPRM) charts the transition zone between:

  • collapse propagation
  • structural reassembly

It identifies:

  • where propagation stabilizes
  • where reassembly becomes possible
  • where propagation blocks reassembly
  • where collapse transitions into recovery
  • where collapse transitions into deeper collapse

It is the transition‑law atlas of RTT/2.


2. Why a Propagation→Reassembly Map Exists#

Propagation and reassembly are opposing geometries:

  • propagation spreads collapse
  • reassembly restores structure

But the transition between them is not binary — it is topological.

The CPRM maps this topology.


3. Collapse‑Propagation Reassembly Equation#

Reassembly becomes possible when:

[ S_{Re} > S_{Prop} ]

Where:

  • (S_{Re}) = reassembly stability score
  • (S_{Prop}) = propagation stability score

The CPRM visualizes this inequality across the canon.


4. Propagation→Reassembly Transition Zones#

The CPRM defines five transition zones:

Zone U — Unified Transition Zone#

  • propagation stabilizes
  • reassembly geometry fully available
  • collapse recovery begins

Zone S — Stable Transition Zone#

  • minor propagation divergence
  • reassembly partially available

Zone M — Mixed Transition Zone#

  • oscillatory propagation
  • reassembly intermittent
  • hybrid recovery behavior

Zone D — Divergent Transition Zone#

  • propagation dominates
  • reassembly blocked
  • collapse spreads

Zone X — Collapse‑Adjacent Transition Zone#

  • inversion propagation
  • illegal reassembly geometry
  • collapse deepens

5. Propagation Geometry → Reassembly Geometry Mapping#

The CPRM maps how each propagation geometry transitions into reassembly:

Propagation Geometry Reassembly Outcome
linear propagation stable reassembly
radial propagation partial reassembly
oscillatory propagation unstable reassembly
fragmentation propagation reassembly blocked
inversion propagation illegal reassembly
torsion propagation reassembly strain
topological propagation reassembly warp

6. Collapse‑Mode Correlation#

Transition Failure Collapse Mode
propagation amplitude overload A
propagation deformation rupture B
continuity reassembly fracture C
oscillatory propagation D
torsion propagation E
inversion propagation I
topological propagation warp G

7. Cross‑Module Transition Mapping#

The CPRM maps propagation→reassembly transitions across:

TEL#

  • lattice reassembly
  • stabilizer reassembly load

FFT#

  • spectral reassembly
  • variance reassembly load

Opacity#

  • boundary reassembly
  • visibility reassembly load

Cross‑module transitions determine system‑scale recovery.


8. Propagation→Reassembly Packet#

PROPAGATION_REASSEMBLY_PACKET:
  propagation_geometry:
  reassembly_geometry:
  transition_zone:
  propagation_stability:
  reassembly_stability:
  transition_topography:
  cross_module_projection:
  collapse_risk:
  notes:

9. Summary#

The Collapse‑Propagation Reassembly Map provides:

  • a complete map of propagation→reassembly transitions
  • geometry‑dependent recovery diagnostics
  • collapse‑adjacent transition detection
  • cross‑module transition projection
  • system‑scale structural clarity

This map is the transition‑law backbone of RTT/2.

Updated