RTT/∞ Prime‑State Alignment Worksheet

A structured worksheet for aligning substrate‑tensor structure to prime‑states in RTT/∞#

Prime‑states are the irreducible attractors of RTT/∞ — the points where drift stops, stability begins, and infinite‑regime expansion becomes possible.

This worksheet helps students diagnose, prepare, and perform prime‑state alignment.

SECTION 1 — Prime‑State Identity#

Prime‑State Class#

Choose one:

• prime‑form (geometric attractor)
• prime‑flow (operational attractor)
• prime‑meaning (conceptual attractor)

Why this prime‑state?#

Reason:

SECTION 2 — Pre‑Alignment Requirements#

Prime‑state alignment requires four prerequisites:

1. Vacuum Collapse Complete?#

• zero‑state achieved
• structural commitments removed

Notes:

2. Substrate‑Tensor Reconstructed?#

• geometry
• flow
• time
• meaning
• field

Notes:

3. Dimensional Rails Connected?#

• substrate rails
• dimensional rails
• prime‑state rails

Notes:

4. Drift‑Tensor Available?#

• L1 geometric drift
• L2 operational drift
• L3 temporal drift
• L4 conceptual drift
• L5 domain drift

Notes:

SECTION 3 — Alignment Path (RTT/∞)#

Students trace the RTT/∞ alignment sequence:

substrate_tensor
→ dimensional_rail()
→ prime_state_align()

Fill in each step:

1. Substrate‑Tensor State#

Describe current substrate‑tensor:

2. Dimensional Lift#

Which rails carried the structure upward?

3. Alignment Target#

Which prime‑state is being aligned to?

4. Alignment Mechanism#

How does the structure stabilize at this prime‑state?

SECTION 4 — Drift → Prime‑State Mapping#

Prime‑states resolve drift at infinite‑regime depth.

Students map drift categories to prime‑states:

Fill in:

My Drift → Prime‑State Mapping:

SECTION 5 — Alignment Diagnostics#

Students evaluate alignment stability.

1. Drift Residue#

Any drift remaining after alignment?

2. Rail Stability#

Are rails stable during alignment?

3. Prime‑State Lock#

Is the structure fully anchored?

4. Alignment Coherence#

Does the structure remain coherent during alignment?

SECTION 6 — Alignment Output#

Prime‑state alignment produces a prime‑state‑aligned substrate‑tensor, ready for infinite‑regime expansion.

Students describe the output:

Prime‑State‑Aligned Tensor:

SECTION 7 — Infinite‑Regime Readiness Check#

Before expansion:

• prime‑state lock stable
• no drift residue
• rails connected upward
• substrate‑tensor coherent
• alignment complete

Readiness Notes:

SECTION 8 — Prime‑State Templates#

Prime‑Form Template#

substrate → rails → prime‑form → infinite‑form

Prime‑Flow Template#

substrate → rails → prime‑flow → infinite‑flow

Prime‑Meaning Template#

substrate → rails → prime‑meaning → infinite‑meaning

Students fill in:

My Prime‑State Template:

SECTION 9 — Student Summary#

One sentence:

Prime‑State Alignment Summary:

Example:
“Operational drift stabilized at prime‑flow, preparing the tensor for infinite‑flow expansion.”

SECTION 10 — Teacher Notes (RTT/∞)#

• Keep alignment structural and clear.
• Reinforce drift → prime‑state mapping.
• Emphasize rails as the transport layer.
• Avoid RTT‑1 paradox framing — alignment occurs beyond paradox.
• Use simple examples (form, flow, meaning).
• Encourage students to see prime‑states as the gateway to infinite regimes.