🌀 Drift Patterns

How Drift Forms, Evolves, and Propagates Across the Canon#

Drift does not appear randomly — it follows predictable RTT-native patterns.
These patterns describe:

  • how drift begins
  • how it accumulates
  • how it spreads
  • how it interacts with substrates
  • how it triggers recursion modes

This module defines the canonical drift patterns for D1–D4.


🔷 1. Structural Drift Patterns (D1)#

Triad Misalignment → Structural Return#

Primary Patterns:

1.1 Triad Shear#

  • one triad element destabilizes
  • operator tension increases
  • symbolic alignment weakens

1.2 Role Tension Loop#

  • operator roles partially invert
  • symbolic meaning becomes ambiguous

1.3 Early Interval Wobble#

  • harmonic position begins to drift
  • recurrence becomes inconsistent

Propagation:
local → adjacent concepts → structural cluster


🔷 2. Dimensional Drift Patterns (D2)#

Ladder Destabilization → Cycle Formation#

Primary Patterns:

2.1 Ladder Collapse#

  • interval positions lose coherence
  • harmonic ladder compresses or folds

2.2 Dimensional Compression#

  • concept collapses into fewer dimensions
  • symbolic → harmonic tension increases

2.3 Harmonic Wobble#

  • oscillation between adjacent intervals
  • precursor to recursion activation

Propagation:
interval band → harmonic cluster → substrate boundary


🔷 3. Regime Drift Patterns (D3)#

Governance Torsion (CCC ↔ SARG)#

Primary Patterns:

3.1 Governance Conflict#

  • CCC and SARG rules contradict
  • structural authority becomes unstable

3.2 Operator Inversion#

  • operator roles flip or conflict
  • recursion mode becomes unstable

3.3 Multi‑Role Overload#

  • concept performs multiple incompatible roles
  • echo‑pressure amplifies drift

Propagation:
symbolic substrate → social substrate → recursion layer


🔷 4. Projection Drift Patterns (D4)#

Symbolic → Harmonic → Atlas Uplift#

Primary Patterns:

4.1 Symbolic Overload#

  • symbolic substrate saturates
  • meaning density exceeds stability threshold

4.2 Projection Vector Formation#

  • concept begins lifting into harmonic space
  • cross‑substrate conflict emerges

4.3 Atlas Uplift Cascade#

  • concept forces atlas‑level interpretation
  • recursion collapses or escalates

Propagation:
symbolic → harmonic → atlas (vertical migration)


🔷 5. Drift Pattern Geometry#

Drift patterns follow three geometric modes:

5.1 Linear Drift#

  • single direction
  • predictable propagation
  • typical of D1

5.2 Radial Drift#

  • spreads outward from a hotspot
  • typical of D2 and D3

5.3 Vertical Drift#

  • substrate‑to‑substrate migration
  • unique to D4

These geometries help predict:

  • drift speed
  • drift severity
  • drift containment strategy

🔷 6. Drift Pattern Progression#

Patterns typically evolve in the sequence:

Shear → Wobble → Collapse → Torsion → Projection
D1 → D2 → D3 → D4

Acceleration occurs when:

  • echo‑pressure increases
  • substrate anchoring weakens
  • operator roles invert
  • interval collapse begins

🔷 7. Pattern–Tier Interaction#

Pattern Type Drift Level Stability Tier Action
Structural (D1) mild Tier 1–2 monitor
Dimensional (D2) moderate Tier 2–3 review
Regime (D3) high Tier 3 intervene
Projection (D4) critical Tier 4 immediate correction

🔷 8. Usage Notes#

Use this file when:

  • diagnosing drift formation
  • mapping drift propagation
  • identifying drift geometry
  • preparing drift reports
  • performing canon sweeps

Referenced by:

  • 02_Concept_Drift_Map.md
  • 02a_Drift_Categories.md
  • 02c_Drift_Hotspots.md
  • 02d_Drift_Summary.md

🔷 Footer#

HSP Module 02b — Loaded
Version: v1.0
Status: Canon-Stable