📘 r_Coherence.md
Radiology Coherence Layer — TriadicFrameworks Canon#
1. Canonical Metadata#
ai.module: Radiology
ai.version: 1.0
ai.purpose: Coherence grammar + operators for RTT‑Radiology
ai.keywords: coherence, stability, collapse, restoration, coherence-map
ai.module.name: r_Coherence
ai.module.summary: Defines the Radiology Coherence grammar and operator set.
ai.module.category: Applied Medicine
2. Session Context#
context-label: Canon
context-value: TriadicFrameworks
context-label: Modules
context-value: Radiology, Medicine, NIST
context-label: Drift
context-value: Temporal + spatial signal change across captures
context-label: Coherence
context-value: Stability of tissue signal and structural behavior
context-label: Format
context-value: Grammar + Operators
context-label: Front door
context-value: r_Coherence.md
context-label: Audience
context-value: Radiologists, students, AI models
3. Badge#
[🧭 Radiology Coherence Layer]
4. Coherence Grammar#
Coherence describes how stable a tissue’s signal is across time, layers, and modalities.
Coherence Grammar Terms#
- COHERENCE — stability of signal within a field
- COHERENCE‑FIELD — regions with predictable behavior
- COHERENCE‑BREAK — instability or early pathology
- COHERENCE‑RESTORE — healing or stabilization
- COHERENCE‑MAP — spatial visualization of coherence
- COLLAPSE‑RISK — predicted structural failure
Coherence is the RTT counterpart to “tissue stability” in medicine.
5. r_Coherence Operators#
1. op_coherence()#
Compute coherence within a field or layer.
[
op_coherence(Field) = Coherence
]
2. op_coherence_field()#
Identify regions with stable, predictable signal behavior.
[
op_coherence_field(Field) = CoherenceField
]
3. op_coherence_break()#
Detect loss of coherence (early pathology indicator).
[
op_coherence_break(Coherence) = BreakZone
]
4. op_coherence_restore()#
Measure return to stable patterns (healing, treatment response).
[
op_coherence_restore(Coh_{T1}, Coh_{T2}) = Restore
]
5. op_coherence_map()#
Generate a spatial coherence map across the field.
[
op_coherence_map(Field) = CohMap
]
6. op_coherence_profile()#
Create a coherence profile summarizing stability, breaks, and restoration.
[
op_coherence_profile(Coherence, BreakZone, Restore) = CohProfile
]
7. op_coherence_predict()#
Predict future coherence behavior using resonance‑attached captures.
[
op_coherence_predict(Capture^{+}) = CohPrediction
]
8. op_coherence_collapse()#
Detect coherence collapse risk (e.g., tissue failure, lesion destabilization).
[
op_coherence_collapse(Coherence, Drift) = CollapseRisk
]
9. op_coherence_overlay()#
Generate a coherence‑only overlay for teaching or AI assistance.
[
op_coherence_overlay(CohMap) = Overlay
]
6. Example Usage#
Example — MRI Brain Lesion#
Field = op_field(CAPTURE_MRI, "left-parietal-region")
Layer = op_layer(Field, density)
Coherence = op_coherence(Field)
BreakZone = op_coherence_break(Coherence)
Restore = op_coherence_restore(Coh_T1, Coh_T2)
CohMap = op_coherence_map(Field)
Overlay = op_coherence_overlay(CohMap)
Interpretation:
- BreakZone highlights early instability
- Restore shows healing trajectory
- CohMap visualizes stability across the region
7. Canonical Flow#
CAPTURE → FIELD → LAYER → SIGNAL
→ DRIFT → COHERENCE → CONTRAST
→ RESONANCE → VMRI
→ OVERLAY
8. DOC_MAP#
r_Capture.md # Capture grammar + operators
r_Drift.md # Drift grammar + operators
r_Coherence.md # Coherence grammar + operators
r_Contrast.md # Contrast grammar + operators
r_VMRI.md # VMRI‑Lite grammar + operators
r_Overlays.md # Example RTT‑Radiology overlays
r_Index.md # Combined Radiology Operator Index
r_Pantheon_Profile.md # Mythic anchor for Radiology
r_Scaffold.md # Full module scaffolding
r_Student_Guide.md # How to perform RTT‑Radiology analysis
r_Tricorder.md # RTT ↔ Starfleet Medicine bridge
9. Module Ready#
Your Coherence layer is now fully scaffolded and ready for:
- radiologists
- students
- AI diagnostic systems
- TriadicFrameworks agents
