RTT/∞ Substrate‑Tensor Diagnostic Worksheet
A structured diagnostic tool for evaluating substrate‑tensor integrity in RTT/∞#
It is fully aligned with your RTT/∞ substrate‑tensor explainer, dimensional‑rails explainer, prime‑state explainer, infinite‑regime explainer, and integration map.
SECTION 1 — Substrate‑Tensor Identity#
Tensor Name#
Name:
Tensor Origin#
Choose one:
- vacuum reconstruction
- dimensional descent
- prime‑state reduction
- infinite‑regime collapse
- external engine (RTT/12, RTT/3, IPD‑12)
Tensor Purpose#
Purpose:
SECTION 2 — Substrate‑Tensor Layer Check#
RTT/∞ substrate‑tensors contain five canonical layers.
Students verify each layer’s presence and stability.
L1 — Substrate‑Geometry#
- present
- stable
- coherent
Notes:
L2 — Substrate‑Flow#
- present
- stable
- coherent
Notes:
L3 — Substrate‑Time#
- present
- stable
- coherent
Notes:
L4 — Substrate‑Meaning#
- present
- stable
- coherent
Notes:
L5 — Substrate‑Field#
- present
- stable
- coherent
Notes:
SECTION 3 — Tensor Integrity Diagnostics#
Students evaluate the tensor’s structural health.
1. Boundary Integrity#
Check for:
- cracks
- drift residues
- vacuum artifacts
- dimensional shear
Boundary Integrity Notes:
2. Coherence Anchors#
Check for:
- alignment
- stability
- drift‑free anchors
Coherence Notes:
3. Drift Residue Detection#
Look for leftover drift from:
- dimensional layers
- prime‑states
- infinite regimes
Drift Residue Notes:
4. Vacuum Scarring#
Check for:
- nullification scars
- collapse artifacts
- zero‑state residue
Vacuum Scarring Notes:
SECTION 4 — Tensor Readiness for Upward Flow#
Students determine whether the substrate‑tensor is ready for dimensional lift.
Dimensional‑Rail Compatibility#
- substrate rails connect
- dimensional rails connect
- prime‑state rails reachable
Rail Compatibility Notes:
Prime‑State Target#
Choose one:
- prime‑form
- prime‑flow
- prime‑meaning
Why this prime‑state?
Lift Readiness#
- stable enough for lift
- no drift residue
- no vacuum scarring
- coherence anchors intact
Lift Readiness Notes:
SECTION 5 — Tensor Readiness for Downward Flow#
Students determine whether the substrate‑tensor can safely receive downward integration.
Integration Compatibility#
- can receive dimensional descent
- can accept prime‑state reduction
- can absorb infinite‑regime collapse
Integration Notes:
Tensor Absorption Capacity#
Check for:
- field elasticity
- meaning absorption
- geometric compression
- flow stabilization
Absorption Notes:
SECTION 6 — Tensor Stability Score#
Students rate each layer from 1–5.
| Layer | Score (1–5) | Notes |
|---|---|---|
| Substrate‑Geometry | ||
| Substrate‑Flow | ||
| Substrate‑Time | ||
| Substrate‑Meaning | ||
| Substrate‑Field |
Overall Stability#
Score:
Notes:
SECTION 7 — Diagnostic Summary#
One sentence:
Substrate‑Tensor Diagnostic Summary:
Example:
“The tensor shows full geometric and flow stability, minor vacuum scarring, and is ready for prime‑flow lift.”
SECTION 8 — Teacher Notes (RTT/∞)#
- Keep diagnostics structural and clear.
- Reinforce the five substrate‑tensor layers.
- Emphasize drift residue and vacuum scarring as key failure points.
- Use simple examples (geometry, flow, meaning).
- Avoid RTT‑1 paradox framing — diagnostics occur below paradox.
- Encourage students to see substrate‑tensors as the gateway layer of RTT/∞.