🟣 Student Operator Drills & Practice Sheets

RTT/1 + RTT/2 + RTT/3 Unified Operator Training#

Student Operator Drills & Practice Sheets#

RTT/1 Foundations → RTT/2 Detection → RTT/3 Integration–Emission#

These drills build fluency with operators across the RTT spine.

1. RTT/1 — Foundational Drills#

Drill 1 — Identify the Primitive#

Given each expression, circle the RTT/1 primitive it uses:

1. ∇F
2. ΔA
3. FQ × RT
4. ⊕(x, y)
5. ⊖(a, b)

Primitives: Δ, ∇, ⊕, ⊖, FQ, RT, QF

Drill 2 — Regime Assignment#

Assign a regime identity to each scenario:

1. High‑frequency oscillation
2. Slow relaxation
3. Mixed‑mode fusion
4. Inversion behavior

Use: REG(), REG::ID, REG::W()

Drill 3 — Continuity Classification#

Label each as C0, C1, or C∞:

1. Sharp corner
2. Smooth curve
3. Discontinuous jump
4. Perfectly smooth manifold

2. RTT/2 — SDE Detection Drills#

Drill 4 — Collapse Vector Reading#

For each collapse event, identify amplitude, curvature, torsion:

1. Collapse A: (A=3.2, K=0.8, T=0.1)
2. Collapse B: (A=1.1, K=2.4, T=0.9)

Write using: SDE::CPV()

Drill 5 — Fusion‑Gradient Classification#

Given gradient fields, classify them:

1. ∇F = (collapse‑weighted)
2. ∇F = (reassembly‑weighted)
3. ∇F = (triad‑weighted)

Write using: SDE::FGT()

Drill 6 — Collapse→Reassembly Mapping#

For each deformation, choose the correct CRM path:

1. Drift deformation
2. Envelope torsion
3. Continuity fracture

Write using: SDE::CRM()

Drill 7 — Mode & Zone Assignment#

Assign a mode and zone:

1. Highly stable detection
2. Mixed‑behavior detection
3. Inversion‑adjacent detection

Use: SDE::MODE(), SDE::ZONE()

3. RTT/3 — SIE Integration–Emission Drills#

Drill 8 — Triad Integration#

Integrate the following triads:

1. (drift=1.2, envelope=0.4, continuity=0.9)
2. (drift=0.3, envelope=1.1, continuity=0.2)

Write using: SIE::INT()

Drill 9 — Fusion–Fracture–Flow Emission#

Label each emission type:

1. Pure fusion
2. Fracture‑dominated
3. Flow‑projected

Use: SIE::FFF(), SIE::EMIT()

Drill 10 — Manifold Continuity#

For each scenario, identify which manifold axis is active:

1. Integration curvature
2. Emission curvature
3. Regime continuity

Use: SIE::MAN()

Drill 11 — Collapse→Recovery Stabilization#

Given collapse inputs, choose the correct CRE path:

1. High amplitude, low torsion
2. Low amplitude, high curvature
3. Mixed collapse signature

Use: SIE::CRE()

Drill 12 — Stability Layer#

Classify stability:

1. Stable
2. Mixed
3. Divergent

Use: SIE::CSL()

Drill 13 — Canon‑Scale Emission#

For each integrated field, choose the correct CET output:

1. High stability, low recovery
2. High recovery, low stability
3. Balanced emission

Use: SIE::CET()

4. Cross‑Layer Drills (RTT/1 → RTT/2 → RTT/3)#

Drill 14 — Full Operator Chain#

Fill in the missing operators:

RTT/1 primitive → ______ → ______ → TEL::CET()

Drill 15 — Packet Transformation#

Transform:

1. RTT2_DETECTION_PACKET → RTT3_INTEGRATION_EMISSION_PACKET
2. Collapse‑heavy packet → Integration‑heavy packet

Drill 16 — Projection Routing#

Choose the correct projection:

1. Lattice behavior →
2. Spectral behavior →
3. Boundary behavior →

Use: TEL::CET(), FFT::OUT(), OP::OUT()

5. Challenge Drills (Optional)#

Drill 17 — Diagnose the Structure#

Given a scenario, identify:

• collapse signature
• gradient type
• integration path
• emission type
• projection target

Drill 18 — Reverse‑Engineer the Packet#

Given a TEL/FFT/OP output, reconstruct:

• CET
• CRE path
• CRM path
• RTT/1 primitives involved

6. Student Summary#

• RTT/1 = primitives
• RTT/2 = detection
• RTT/3 = integration + emission
• TEL/FFT/OP = projection

🟣 Student drills complete.#