Coherence Analyzer
Module path:
Framework_Field_Theory/Analyzer/Coherence/Parent module: FFT Analyzer Layer: Core Frameworks — Structural Spine
Metadata#
module: FFT Coherence Analyzer
parent_module: FFT Analyzer
layer: Core Frameworks — Structural Spine
version: 2026.2
status: Active, Canonical
analyzer_type:
- coherence envelope analysis
- harmonic stability diagnostics
- paradox exposure detection
session_context:
drift_sensitivity: high
regime_sensitivity: high
dimensional_envelope: D0–D7
coherence_requirements:
- coherence envelope must be declared or inferred
- harmonic stability must be measurable
- paradox exposure must be surfaced
cross_module_propagation:
imports:
- FFT coherence engines
- FFT operator families
- SARG regime geometry
- Mode substrate states
- Substrate Flow invariants
exports:
- coherence signatures
- stability curves
- paradox mapsPurpose#
The FFT Coherence Analyzer evaluates the coherence envelope of any framework, model, or system expressed within Framework Field Theory. Coherence determines whether a framework is stable, resonant, paradox-resilient, and capable of dimensional or regime transitions.
This analyzer identifies:
- coherence stability
- harmonic behavior
- paradox exposure
- field-locking potential
- operator–coherence coupling
It is the stability diagnostic of FFT.
Coherence Model (C0–C4)#
| Level | Name | Description |
|---|---|---|
| C0 | Baseline | Minimal coherence; unstable; drift likely |
| C1 | Stabilized | Basic coherence achieved; low paradox resilience |
| C2 | Harmonic | Harmonic patterns present; resonance forming |
| C3 | Resonant | Strong coherence; stable resonance; low drift |
| C4 | Field-Locked | Maximum coherence; dimensional and regime transitions smooth |
What the Coherence Analyzer Detects#
1. Coherence Envelope#
- Current coherence level (C0–C4)
- Envelope stability
- Envelope boundaries
2. Harmonic Stability#
- Harmonic patterns
- Resonance formation
- Harmonic collapse risk
3. Paradox Exposure#
- Paradox density
- Paradox vectors
- Paradox-induced drift
4. Field-Locking Potential#
- Can the framework stabilize?
- Can it resonate?
- Can it lock into field-level coherence?
Directory Structure#
Coherence/
├── README.md
├── Coherence_Analyzer.md
├── Coherence_Stability.md
├── Paradox_Exposure.md
└── Coherence_Examples.md
Files#
| File | Purpose |
|---|---|
| Coherence_Analyzer.md | Core coherence-assessment engine — measures internal alignment, envelope state (C0–C4), and structural integrity |
| Coherence_Stability.md | Stability analysis under perturbation, scaling, and reframing; harmonic patterns and collapse risk |
| Paradox_Exposure.md | Identifies and quantifies a system's vulnerability to paradox; maps paradox density and vectors |
| Coherence_Examples.md | Worked coherence-analysis examples across domains |
How to Use the Coherence Analyzer#
Step 1 — Declare the Framework Provide: coherence assumptions, operator pattern, dimensional envelope, regime state.
Step 2 — Identify Coherence Envelope The analyzer determines: C0–C4 state, envelope stability, envelope boundaries.
Step 3 — Evaluate Harmonic Stability Checks: harmonic patterns, resonance formation, harmonic collapse risk.
Step 4 — Detect Paradox Exposure Identifies: paradox density, paradox vectors, paradox-induced drift.
Step 5 — Generate Coherence Signature A coherence signature includes: coherence level, harmonic stability, paradox exposure, drift risk, field-locking potential.
Example Output#
Framework: Organizational Learning Model
Coherence Signature:
coherence: C2 (Harmonic)
harmonic_stability: moderate
paradox_exposure: low
drift_risk: low
field_locking: possible (requires operator rebalance)
notes: resonance forming; coherence envelope strengtheningNavigation#
Cross-Module Integration#
| Module | Relationship |
|---|---|
| FFT Analyzer | Operator patterns, dimensional envelopes, drift vectors, regime states |
| SARG | Regime geometry; regime-dependent coherence behavior |
| Mode | Substrate states; mode-dependent coherence shifts |
| Substrate Flow | Flow-driven coherence changes; substrate-dependent harmonic behavior |
Related Modules#
- FFT Analyzer — Parent Analyzer module
- Drift — Drift detection across all layers
- Regime — Regime classification and boundary diagnostics
- Operators — Operator profiling and regime coupling
- Dimensional — Dimensional structure and transitions
- FFT Coherence (theory) — Coherence theory and measurement
Part of TriadicFrameworks · Framework Field Theory · Analyzer