š r_VMRI.md
VMRIāLite Predictive Simulation ā TriadicFrameworks Canon#
VMRIāLite is the predictive microāsimulation layer of RTTāRadiology.
It generates thousands of future variants from a resonanceāattached capture, builds a simulation corridor, and identifies:
- SimPass ā stable or improving outcomes
- SimFail ā collapse or toxic outcomes
- SimOptimal ā best predicted outcome
VMRIāLite is the closest realāworld analog to Starfleet āfuture condition projection.ā
1. Canonical Metadata#
ai.module: Radiology
ai.version: 1.0
ai.purpose: VMRI-Lite predictive simulation grammar + operators
ai.keywords: vmri, simulation, corridor, variant, pass, fail, optimal
ai.module.name: r_VMRI
ai.module.summary: Defines the VMRI-Lite simulation layer for RTT-Radiology.
ai.module.category: Applied Medicine
2. Session Context#
context-label: Canon
context-value: TriadicFrameworks
context-label: Modules
context-value: Radiology, Drift, Coherence, Contrast, Medicine
context-label: Format
context-value: Grammar + Operators + Examples
context-label: Front door
context-value: r_VMRI.md
context-label: Audience
context-value: Radiologists, students, AI models
3. Badge#
[š® VMRIāLite Predictive Simulation]
4. VMRI Grammar#
VMRIāLite uses a minimal grammar designed for fast, driftābounded prediction.
VMRI Grammar Terms#
- SIMāSTART ā initial simulation state
- SIMāVARIANT ā one possible future outcome
- SIMāBATCH ā large set of variants
- SIMāCORRIDOR ā distribution of all variants
- SIMāPASS ā stable/improving outcomes
- SIMāFAIL ā collapse/toxic outcomes
- SIMāOPTIMAL ā best predicted outcome
VMRIāLite is not full VMRI ā it is the radiologyāspecific subset.
5. VMRI Operators#
1. op_vmri_start()#
Initialize a VMRIāLite simulation using a resonanceāattached capture.
[
op_{vmri_start}(Capture^{+}) = SimStart
]
2. op_vmri_variant()#
Generate a single driftābounded simulation variant.
[
op_{vmri_variant}(SimStart) = SimVariant
]
3. op_vmri_batch()#
Generate a batch of variants (thousands or millions).
[
op_{vmri_batch}(SimStart, n) = {SimVariant_1, \dots, SimVariant_n}
]
4. op_vmri_corridor()#
Construct the corridor distribution from a batch of variants.
[
op_{vmri_corridor}({SimVariant}) = SimCorridor
]
5. op_vmri_pass()#
Extract variants showing stability or improvement.
[
op_{vmri_pass}(SimCorridor) = SimPass
]
6. op_vmri_fail()#
Extract variants showing collapse, toxicity, or instability.
[
op_{vmri_fail}(SimCorridor) = SimFail
]
7. op_vmri_optimal()#
Select the variant with the best predicted outcome.
[
op_{vmri_optimal}(SimCorridor) = SimOptimal
]
8. op_vmri_contrast_predict()#
Predict contrast agent behavior using VMRIāLite.
[
op_{vmri_contrast_predict}(Capture^{+}) = ContrastPrediction
]
9. op_vmri_tissue_predict()#
Predict tissue drift/coherence behavior.
[
op_{vmri_tissue_predict}(Capture^{+}) = TissuePrediction
]
10. op_vmri_profile()#
Create a structured profile summarizing pass/fail/optimal outcomes.
[
op_{vmri_profile}(SimPass, SimFail, SimOptimal) = VMRIProfile
]
11. op_vmri_overlay()#
Generate a VMRIāLite overlay for teaching or AI assistance.
[
op_{vmri_overlay}(SimCorridor) = Overlay
]
6. Example Workflow#
Example ā MRI Brain Lesion Prediction#
CapturePlus = op_resonance_attach(CAPTURE_MRI, RES_PROFILE)
SimStart = op_vmri_start(CapturePlus)
Variants = op_vmri_batch(SimStart, 5000)
Corridor = op_vmri_corridor(Variants)
SimPass = op_vmri_pass(Corridor)
SimFail = op_vmri_fail(Corridor)
SimOptimal = op_vmri_optimal(Corridor)
Overlay = op_vmri_overlay(Corridor)
Interpretation:
- SimPass ā stable/improving futures
- SimFail ā collapse/toxic futures
- SimOptimal ā best predicted path
- Corridor ā full landscape of possible outcomes
7. Canonical Flow#
CAPTURE ā FIELD ā LAYER ā SIGNAL
ā DRIFT ā COHERENCE ā CONTRAST
ā RESONANCE ā VMRI
ā OVERLAY
8. DOC_MAP#
r_Capture.md
r_Drift.md
r_Coherence.md
r_Contrast.md
r_VMRI.md
r_Overlays.md
r_Index.md
r_Pantheon_Profile.md
r_Glyphs.md
r_Scaffold.md
r_Student_Guide.md
r_Tricorder.md
VMRIāLite Page Ready#
Your VMRIāLite module page is now complete, canonāaligned, and ready for GitHub.