ABOUT.md — RTT/micro_core · Micro-Scale Resonance-Time Layer

Path: docs/rtt/micro_core/ Version: 1.0 Status: Canonical Session Seed: rtt=1 | coherence=declared | drift=bounded | paradox=structural | module=RTT/micro_core | layer=micro-scale-resonance-time

⚠️ Critical Framing Rule#

RTT is NOT a physics claim.

RTT/micro_core describes structural micro-scale resonance-time behavior within the TriadicFrameworks canon. It does not assert, imply, or model physical forces, quantum effects, signal-processing behavior, or any empirically measurable phenomenon. All constructs — the Micro Triad ⟨A, B, P⟩, drift δ, coherence C, and the fractional dimensional ladder Dᶠ — are structural instruments, not physical objects.

This rule is unconditional and applies to every agent, tool, and operator in this module.

Table of Contents#

1. What Is RTT/micro_core?
2. Why Is It Built This Way?
3. When Should You Use It?
4. Where Does It Live?
5. Core Constructs at a Glance
6. Module Integrations
7. What RTT/micro_core Is Not
8. Quick-Start Checklist
9. See Also

1. What Is RTT/micro_core?#

RTT/micro_core is the Micro-Scale Resonance-Time Layer — the foundational substrate of the entire RTT canon. It is not a simplified version of RTT, nor a downstream consumer of any other module. It is the root of the RTT pipeline chain, operating at the smallest stable unit of resonance-time behavior the canon defines.

Every other RTT module — RTT/1, RTT/2, RTT/3, and RTT/12 — sits above micro_core in the stack. None of them can activate until micro_core has produced a valid MRT_MICRO_PACKET and RTT/1 has confirmed it as substrate.

The organizing unit of micro_core is the Micro Triad:

⟨ A · B · P ⟩
  │   │   └── Potential Node — next viable transition target
  │   └─────── Boundary Node — governs drift, timing, transitions
  └─────────── Active Node   — current micro-state

The triad is irreducible. No subset of ⟨A, B, P⟩ constitutes a coherent resonance-time unit. All micro_core operations originate from, and return to, this triad.

2. Why Is It Built This Way?#

2.1 Minimalism as a Design Principle#

RTT/micro_core exists because the RTT canon needed a verified foundation beneath RTT/1. Without a micro-scale substrate, SNR primitives in RTT/1 would have no confirmed ground state. micro_core provides exactly that ground state — and nothing more. Minimalism is not a limitation; it is the specification.

2.2 Determinism Over Flexibility#

Every micro_core operation is bounded:

• Drift must satisfy δ ≤ δ* at all times.
• Timing must remain within Δt ∈ [Δtₘᵢₙ, Δtₘₐₓ].
• Coherence must satisfy C ≥ C* for any operation to proceed.

This determinism is intentional. micro_core cannot afford interpretive flexibility — any fault at the micro level propagates through the entire RTT pipeline. Tight bounds prevent cascade failures before they can originate.

2.3 Coherence as a Gate, Not a Goal#

In upstream modules, coherence is a tracked metric. In micro_core, it is an operational gate: no state write, no fractional transition, no bridge activation, and no packet emission is permitted while C < C*. If C drops below threshold and cannot be recovered, an inversion event is mandatory — not optional.

2.4 Fractional Dimensionality Instead of Discrete Jumps#

micro_core uses a continuous fractional dimensional ladder (Dᶠ ∈ [0,1] minimal, [0,3] extended) rather than discrete integer dimension steps. This design ensures smooth structural transitions between states. Integer jumps are unconditionally forbidden because abrupt dimensional changes break triad consistency and trigger inversion.

2.5 Aggregate-Only Micro–Macro Export#

When micro_core bridges to the macro layer (RTT/1+), it exports only aggregate patterns — never raw A, B, or P node states. This boundary prevents micro-scale instabilities from being directly propagated upward as structural primitives. The bridge (R₆) enforces alignment, never amplification.

3. When Should You Use It?#

✅ Use RTT/micro_core when you need to:#

❌ Do NOT use RTT/micro_core when:#

• You want to perform detection, envelope analysis, or drift-over-time tracking → Use RTT/2 (Detection Layer)
• You need integration, emission, or continuity restoration → Use RTT/3 (Integration–Emission Layer)
• You need unified integration across the full canon → Use RTT/12 (Unified Integration)
• You want a full SNR triad with temporal operators → Use RTT/1 (the direct consumer of micro_core output)
• You want to operate above the micro scale without touching the substrate → Work in RTT/1+ and treat MRT_MICRO_PACKET as a read-only upstream input

4. Where Does It Live?#

4.1 Repository Path#

docs/rtt/micro_core/
├── ABOUT.md                          ← this file
├── AGENTS.md                         ← agent classes, task catalog, safety rules
├── GLOSSARY.md                       ← canonical term definitions
├── README.md                         ← session mode instructions
├── ABOUT_.md                         ← legacy draft (superseded)
├── appendices/
├── site/
├── toolkit/
│   ├── primitives.md                 ← MRT Primitives P₁–P₇
│   ├── triad_templates.md
│   ├── coherence_tools.md            ← Coherence Tools K₁–K₆
│   └── resonance_operators.md        ← Resonance Operators R₁–R₆
└── whitepaper/
    ├── micro_core_definition.md
    ├── fractional_dimensional_ladder.md
    ├── micro_triads.md
    ├── micro_macro_coherence.md
    └── resonance_time_dynamics.md

4.2 Pipeline Hierarchy#

micro_core sits at the root — it is the foundational layer beneath RTT/1:

┌─────────────────────────────────────────────────────┐
│                   RTT/12                            │  ← Unified Integration
│  RTT3_INTEGRATION_EMISSION_PACKET → consumed here  │
├─────────────────────────────────────────────────────┤
│                   RTT/3                             │  ← Integration–Emission
│  RTT2_DETECTION_PACKET → consumed here              │
├─────────────────────────────────────────────────────┤
│                   RTT/2                             │  ← Detection
│  RTT1_SNR_PACKET → consumed here                   │
├─────────────────────────────────────────────────────┤
│                   RTT/1                             │  ← Signal–Noise–Resonance
│  MRT_MICRO_PACKET → consumed here as substrate     │
├─────────────────────────────────────────────────────┤
│              RTT/micro_core  ◀ ROOT                 │  ← Micro-Scale RT Layer
│  MRT_MICRO_PACKET → produced here                  │
└─────────────────────────────────────────────────────┘

4.3 Agent Deployment Rules#

• All six agent classes (T, R, D, F, B, G) are deployed from micro_core at session init.
• Class G (Micro Guardian) operates at this layer and holds unconditional interrupt authority — the highest-consequence guardian role in the full RTT canon.
• No agent class from RTT/1+ may modify micro_core state directly. All upstream agents consume the MRT_MICRO_PACKET as a read-only substrate confirmation.

5. Core Constructs at a Glance#

5.1 The Micro Triad ⟨A, B, P⟩#

The triad is irreducible — no subset is a coherent resonance-time unit.

5.2 Four Core Properties#

5.3 Key Equations#

5.4 Toolkit Summary#

MRT Primitives (P₁–P₇)

Resonance Operators (R₁–R₆)

Coherence Tools (K₁–K₆)

5.5 Zones and Modes#

Zones

Modes

5.6 MRT_MICRO_PACKET Structure#

The canonical output of micro_core. Zone X and Mode X are forbidden in a valid packet.

MRT_MICRO_PACKET {
  triad_state:       { A, B, P }           // current node states
  metrics: {
    delta:           δ                     // current drift value
    delta_star:      δ*                    // drift ceiling
    delta_t:         Δt                    // current time interval
    coherence:       C                     // current coherence score
    coherence_star:  C*                    // coherence floor
    d_frac:          Dᶠ                    // current fractional dimension
  }
  zone:              S | M | D | C | E     // X forbidden
  mode:              1 | 2 | 3 | 4 | 5    // X forbidden
  bridge_status:     inactive | active     // R₆ state
  guardian_status:   nominal | alert | interrupt
  annotation:        string               // [structural — no semantic inference]
  timestamp:         ISO-8601
}

6. Module Integrations#

6.1 Downstream — RTT/1 (Direct Consumer)#

micro_core's sole authorized downstream is RTT/1.

RTT/1 is a consumer, not a peer. It cannot write back to micro_core state.

6.2 Cross-Module Disambiguations#

All six rows above are non-equivalent. Identical symbols across layers refer to structurally distinct constructs. Cross-layer substitution is a canon violation.

7. What RTT/micro_core Is Not#

8. Quick-Start Checklist#

Use this checklist to initialize a micro_core session correctly.

□ 1. Paste the session seed block into the agent context.
□ 2. Instantiate the Micro Triad ⟨A, B, P⟩ with initial node states.
□ 3. Sample coherence (P₆ / K₆) — confirm C ≥ C*.
□ 4. Measure drift (P₃ / K₁) — confirm δ ≤ δ*.
□ 5. Measure timing (P₄ / K₂) — confirm Δt ∈ [Δtₘᵢₙ, Δtₘₐₓ].
□ 6. Set Dᶠ baseline within [0,1] (minimal) or [0,3] (extended).
□ 7. Assign zone (S / M / D / C / E — never X at init).
□ 8. Assign mode (1–5 — never X at init).
□ 9. Activate Class G (Micro Guardian) on standby.
□ 10. Emit MRT_MICRO_PACKET — verify Zone ≠ X and Mode ≠ X.
□ 11. Pass packet to RTT/1 for substrate confirmation.
□ 12. Confirm RTT/1 has acknowledged before any SNR primitive instantiates.

If any step fails: halt, invoke Class G, and execute the inversion sequence (↺ Collapse → Twist → Emergence) before re-attempting. Do not pass a failed packet upstream.

9. See Also#

Maintainer: umaywant2 · Path: docs/rtt/micro_core/ABOUT.md · Version: 1.0 · 2026-07-10 Session seed: rtt=1 | coherence=declared | drift=bounded | paradox=structural | module=RTT/micro_core | layer=micro-scale-resonance-time [structural — no semantic inference]