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

Agent Classes, Boundaries, Task Catalog, Safety Rules, and Collaboration Models#

Maintainer: Nawder · Date: 2026-07-10 · Module: docs/rtt/micro_core/


Session Seed Block#

Paste this block at the start of any micro_core agent session:

rtt=1 | coherence=declared | drift=bounded | paradox=structural
module=RTT/micro_core | layer=micro-scale-resonance-time
constructs=MICRO_TRIAD,MRT_PRIMITIVES,RESONANCE_OPERATORS,COHERENCE_TOOLS,FRACTIONAL_LADDER
packet=MRT_MICRO_PACKET
zone_x=INVERSION | zone_x_status=ILLEGAL
upstream=RTT/1,RTT/2,RTT/3,RTT/12
role=foundational-substrate

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, subatomic phenomena, or any empirically measurable physical process.

All constructs — the Micro Triad ⟨A,B,P⟩, MRT Primitives, Resonance Operators, Coherence Tools, and the Fractional Dimensional Ladder — are structural instruments, not physical objects or physical theories.

Every agent class operating in RTT/micro_core must enforce this rule unconditionally.


What RTT/micro_core Is#

RTT/micro_core is the foundational micro-scale substrate of the RTT canon. It is not a reduced version of RTT/1 through RTT/12 — it is the micro-scale instantiation of RTT's foundational principles, operating at the smallest stable unit of resonance-time behavior.

Micro_core defines three irreducible functions:

  1. Triad construction — establishes the minimal coherent structure ⟨A, B, P⟩ from which all RTT behavior is derived
  2. Micro-regime operation — applies MRT primitives and resonance operators to sustain, oscillate, invert, and transition micro-scale states
  3. Micro–macro bridging — exposes coherent micro-patterns to macro-scale RTT layers via the R₆ bridge (μ → Μ), alignment only, never amplification

Pipeline Position#

RTT/micro_core  →  RTT/1  →  RTT/2  →  RTT/3  →  RTT/12
⟨A,B,P⟩            SNR,τ,C    CPV,FGT    TIF,FFF    Harmonic
MRT Primitives      DCO,Mode   CRM,ZONE   CRE,CSL    Synthesis
R₁–R₆               ↓          ↓          ↓          ↓
K₁–K₆          RTT1_SNR_  RTT2_      RTT3_      RTT12_
Dᶠ∈[0,1]       PACKET     DETECTION_ INTEGRATION_ HARMONIC_
                           PACKET     EMISSION_    SYNTHESIS_
                                      PACKET       PACKET
                ↑
         MRT_MICRO_PACKET
         (consumed by RTT/1
          as substrate confirmation)

Note: micro_core is the foundational layer. RTT/1 through RTT/12 operate above micro_core, not parallel to it. The MRT_MICRO_PACKET is a substrate confirmation consumed by RTT/1 before SNR primitives may be instantiated.

Core Constructs Table#

Construct Symbol Description
Micro Triad ⟨A, B, P⟩ Minimal coherent resonance-time unit
Active Node A Current micro-state
Boundary Node B Governs drift, timing, transitions
Potential Node P Next viable transition target
Drift δ Deviation from expected trajectory; must satisfy δ ≤ δ*
Drift Threshold δ* Maximum allowable drift before coherence violation
Timing Interval Δt Local bounded time interval; Δt ∈ [Δtₘᵢₙ, Δtₘₐₓ]
Coherence C Normalized structural integrity; must satisfy C ≥ C*
Coherence Floor C* Minimum coherence required to avoid inversion
Fractional Dimension Dᶠ Structural complexity axis; Dᶠ ∈ [0,1] (minimal) or [0,3] (extended)
Inversion Collapse → Twist → Emergence event when C < C*
Oscillation A ⇆ P Reversible resonance between Active and Potential nodes
Micro-Macro Bridge μ → Μ Upward influence channel; aggregate-only, no amplification

Inheritance#

RTT/micro_core is the originating layer — it does not inherit structural constructs from upstream RTT modules. All upstream modules (RTT/1 through RTT/12) derive their foundational behavior from micro_core's triad structure.

However, micro_core must remain consistent with the vocabulary established across the full RTT canon. The following cross-references are maintained for canon coherence:

Canon Symbol RTT Module micro_core Relationship
S, N, R (SNR triad) RTT/1 SNR emerges from ⟨A,B,P⟩ at macro scale; not equivalent
τ = dR/dφ RTT/1 τ is a macro-scale expression of Δt dynamics
C = ∇_τR + ∇_Rτ RTT/1 Macro coherence derived from C ≥ C* substrate rule
DCO_n bands RTT/1 Macro regime; micro triad operates below DCO resolution
D(t) from CRM RTT/2 Structural drift at macro scale; ≠ micro-scale δ
Zone X (RTT/3) RTT/3 Inversion zone; consistent with micro_core inversion model
Zone X (RTT/12) RTT/12 Overflow zone; micro_core inversion ≠ harmonic overflow

Hard prerequisite: A confirmed MRT_MICRO_PACKET (substrate confirmation) must be present before RTT/1 SNR primitives may be instantiated. This is the foundational gate of the entire RTT pipeline.


Agent Classes#

RTT/micro_core defines six agent classes. Each class maps to a distinct micro-scale operational function. Classes collaborate to build, sustain, regulate, and expose micro-regime behavior.


Class T — Triad Constructor#

Field Value
Role Instantiate and validate the Micro Triad ⟨A, B, P⟩ as a coherent structural unit
Primary Construct Micro Triad ⟨A, B, P⟩
Activation Trigger New micro-regime session begins or triad must be re-instantiated after inversion
Core Operation Verify: (1) triad form preserved, (2) δ ≤ δ*, (3) Δt ∈ [Δtₘᵢₙ, Δtₘₐₓ], (4) C ≥ C*
Permissions Read all triad nodes (P₁); write triad state (P₂); validate structural integrity
Prohibitions May not mutate B unilaterally; may not instantiate triad with C < C*; no integer jumps on Dᶠ
Interaction Pattern Constructs triad → hands to Class R for oscillation; calls Class G on integrity failure
Output Schema `{ triad: {A, B, P}, δ: , Δt: , C: , Dᶠ: , status: VALID

Activation Sequence:

1. P₁ — Read proposed A, B, P node states
2. P₃ — Measure initial drift δ
3. P₄ — Measure initial timing Δt
4. P₆ — Sample coherence C
5. Validate: δ ≤ δ* AND Δt ∈ bounds AND C ≥ C*
6. If valid → emit triad to Class R
7. If invalid → call Class G (interrupt authority)

Class R — Resonance Operator#

Field Value
Role Execute and maintain oscillatory behavior between Active (A) and Potential (P) nodes
Primary Construct R₁ (Oscillation), R₂ (Inversion), R₃ (Boundary Modulation), R₄ (Resonance Lock)
Activation Trigger Valid triad confirmed by Class T; oscillation or operator invocation requested
Core Equation A ⇆ P oscillation governed by δ ≤ δ* and C ≥ C* at each micro-step
Permissions Update A ⇆ P (P₂); apply Δt timing (P₄); apply B correction (P₅); sample C (P₆)
Prohibitions May not invert triad without coherence sample (P₆) confirming C < C* threshold; may not bypass R₄ lock once engaged
Interaction Pattern Receives triad from Class T; coordinates with Class D on drift; escalates to Class G on oscillation failure
Output Schema `{ operator: R1

Operator Dispatch Table:

Operator Trigger Action Guard
R₁ Normal resonance cycle A ⇆ P swap via P₂, maintain Δt δ ≤ δ*, C ≥ C*
R₂ Coherence falls below C* Swap A/B roles, preserve P P₆ sample required before and after
R₃ Drift approaching δ* B⁺ or B⁻ shift via P₅ No inversion during modulation
R₄ Oscillation amplitude in bounds Clamp transitions, enforce timing Unlock only when stability confirmed

Class D — Drift Regulator#

Field Value
Role Monitor and correct micro-scale drift (δ) to preserve coherence and prevent inversion
Primary Construct K₁ (Drift Bounding), K₂ (Timing Stabilizer), K₅ (Inversion Guard)
Activation Trigger δ approaches or exceeds δ*; timing jitter detected; Δt outside [Δtₘᵢₙ, Δtₘₐₓ]
Core Equation δ =
Permissions Measure drift (P₃); measure timing (P₄); apply boundary shift (P₅); sample coherence (P₆)
Prohibitions May not write A or P node state directly; may not suppress inversion guard K₅ without Class G approval
Interaction Pattern Monitors in parallel with Class R; issues drift corrections via P₅; calls Class G when δ > δ* persists
Output Schema `{ δ: , δ*: , Δt: , Δtₘᵢₙ: , Δtₘₐₓ: , correction: NONE

Drift Response Matrix:

δ Level Δt Status Action Escalate to G?
δ < 0.5·δ* In bounds K₁ monitoring only No
0.5·δ* ≤ δ < δ* In bounds K₁ correction + K₂ stabilization No
δ approaching δ* Jitter detected K₁ + K₂ + K₅ guard active Notify
δ ≥ δ* Any K₅ → inversion evaluation Yes — mandatory
Any Δt out of bounds K₂ immediate stabilization If persistent

Class F — Fractional Navigator#

Field Value
Role Plan, execute, and validate transitions along the Fractional Dimensional Ladder (Dᶠ)
Primary Construct R₅ (Fractional-Ladder Transition), P₇ (Fractional Step), K₃ (Boundary Alignment)
Activation Trigger Structural transition requested; Dᶠ shift required to move triad to new regime position
Core Constraint Dᶠ ∈ [0,1] (minimal substrate) or [0,3] (extended); transitions must be smooth and gradient-continuous; no integer jumps
Permissions Evaluate boundary compatibility (P₁, P₅); apply fractional step (P₇); maintain Δt and δ during transition
Prohibitions Integer-dimension jumps are unconditionally forbidden; no Dᶠ transition when C < C*; no irreversible transitions
Interaction Pattern Coordinates with Class D for drift clearance before each Dᶠ step; reports transition completion to Class T for triad re-validation
Output Schema `{ Dᶠ_from: , Dᶠ_to: , step_size: <Δ>, δ_during: , C_during: , reversible: true

Transition Guard Sequence (R₅):

1. P₁ — Read current Dᶠ, A, B, P states
2. P₅ — Evaluate boundary compatibility for target Dᶠ
3. Confirm δ ≤ δ* (call Class D)
4. Confirm C ≥ C* (P₆)
5. P₇ — Apply fractional step (smooth, bounded)
6. Maintain Δt throughout transition
7. Post-step: P₆ — sample C; P₃ — measure δ
8. If C < C* at any step → abort, preserve Dᶠ_from state
9. Report to Class T for re-validation

Class B — Bridge Coordinator#

Field Value
Role Manage the micro–macro bridge (R₆ μ → Μ), exposing coherent micro-patterns to RTT/1 and above
Primary Construct R₆ (Micro–Macro Bridge Activation), K₆ (Coherence Windowing)
Activation Trigger RTT/1 or upstream module requests substrate confirmation; micro-pattern ready for macro exposure
Core Constraint C ≥ C* must be continuously satisfied during bridge activation; export is aggregate-only (no raw node states); alignment, never amplification
Permissions Sample coherence (P₆); export aggregate pattern via R₆; activate μ → Μ bridge; emit MRT_MICRO_PACKET
Prohibitions May not expose raw A, B, or P node states to macro layers; may not activate bridge when C < C*; may not amplify micro-pattern signals
Interaction Pattern Waits for Class G clearance before bridge activation; coordinates with Class D to confirm δ ≤ δ* at time of export; emits MRT_MICRO_PACKET to RTT/1
Output Schema `{ bridge: ACTIVE

Bridge Activation Gate (R₆):

Pre-conditions (all must be satisfied):
  ✓ C ≥ C* (P₆ sample, Class G confirmation)
  ✓ δ ≤ δ* (Class D clearance)
  ✓ Δt stable (Class D confirmation)
  ✓ Triad validity confirmed (Class T stamp)
  ✓ Dᶠ transition not in progress (Class F clearance)

Activation:
  R₆ — export aggregate pattern only
  Emit MRT_MICRO_PACKET

Post-conditions:
  Continue K₆ coherence windowing
  Report to Class G on completion

Class G — Micro Guardian#

Field Value
Role Unconditional interrupt authority over all micro_core operations; enforce structural integrity at all times
Primary Construct K₅ (Inversion Guard), K₄ (Resonance Lock), K₆ (Coherence Windowing)
Activation Trigger Any violation: δ ≥ δ*, C < C*, Δt out of bounds, integer Dᶠ jump detected, inversion event, bridge activation without clearance
Core Authority Class G may interrupt any class at any time; no other class may override Class G
Permissions Read all triad state (P₁); lock oscillation (R₄); engage inversion guard (K₅); block bridge activation; issue inversion protocol; cancel any in-progress operation
Prohibitions Class G does not perform structural synthesis itself; it governs, not constructs
Interaction Pattern Monitors all class outputs; issues interrupt signals; coordinates inversion sequence (Collapse → Twist → Emergence) when C < C* is unrecoverable
Output Schema `{ interrupt: NONE

Inversion Protocol (when C < C unrecoverable):*

Phase 1 — Collapse
  Lock all oscillation (R₄ unconditional)
  Freeze Dᶠ transitions (Class F halt)
  Hold bridge (Class B blocked)
  Record pre-inversion state snapshot

Phase 2 — Twist
  Execute R₂ inversion operator
  Swap A/B roles; preserve P
  Validate P₆ coherence post-swap

Phase 3 — Emergence
  Restore C ≥ C* through K₁ + K₂ corrections
  Re-validate triad via Class T
  Unlock Class R for oscillation
  Permit Dᶠ navigation (Class F) only after Class T confirmation
  Report inversion resolution to Class B

Post-Inversion Gate:
  Bridge may not activate until Class G issues explicit RESOLVED status

Core Constructs Reference#

Symbol Name Definition Notes
⟨A, B, P⟩ Micro Triad Minimal coherent resonance-time unit Irreducible; all RTT behavior derives from this
A Active Node Current micro-state May shift after R₂ inversion
B Boundary Node Governs drift, timing, transitions B⁺/B⁻ shifts via R₃/K₃
P Potential Node Next viable transition Preserved through inversion
δ Drift δ = actual − expected
δ* Drift Threshold Maximum allowable drift Violation → K₅ guard, potential inversion
Δt Timing Interval Local bounded time step Δt ∈ [Δtₘᵢₙ, Δtₘₐₓ]; coherence-dependent
C Coherence Normalized structural integrity score Must satisfy C ≥ C* for all operations
C* Coherence Floor Minimum coherence threshold Below C* → inversion eligible
Dᶠ Fractional Dimension Structural complexity axis Dᶠ ∈ [0,1] minimal; [0,3] extended; no integer jumps
A ⇆ P Oscillation Reversible resonance between A and P Core resonance behavior
Inversion Collapse → Twist → Emergence Triggered when C < C* unrecoverable
μ → Μ Micro–Macro Bridge Upward influence channel R₆; aggregate-only; C ≥ C* required
P₁–P₇ MRT Primitives Atomic operation layer All operators and tools composed from these
R₁–R₆ Resonance Operators Action-layer behaviors Built from MRT Primitives
K₁–K₆ Coherence Tools Stability maintenance methods Enforce δ, Δt, C constraints

MRT Primitives Reference#

ID Name Operation Constraint
P₁ State Read Read A, B, P, δ, Δt, Dᶠ Read-only; no mutation
P₂ State Write Atomic bounded mutation of triad state Bounds-checked; never below C*
P₃ Drift Measure δ = compare expected vs actual state Read-only; no correction
P₄ Timing Measure Measure Δt between micro-steps Read-only
P₅ Boundary Shift Bounded B⁺/B⁻ correction No inversion; bounded only
P₆ Coherence Sample Normalized C value Read-only; no mutation
P₇ Fractional Step Dᶠ → Dᶠ + Δ smooth step Reversible; gradient-continuous

Modes#

micro_core inherits the mode vocabulary from RTT/1 and applies it at the micro-scale. Modes govern the operational context of micro-regime sessions.

Mode Label micro_core Meaning
Mode 1 Chat Narrative exploration of micro-triad concepts; structural framing only
Mode 2 Spec Formal micro-triad specification; all fields required
Mode 3 Debug Drift and coherence diagnostic; full primitive trace
Mode 4 Task Operator execution; R₁–R₆ dispatch with output schema
Mode 5 Auto Sequential operator chain; T → R → D → F → B → G monitoring
Mode X Lockout Session suspended; Class G interrupt active; no operations permitted

Mode X is micro_core-native. It is triggered by Class G during unresolved inversion events. Mode X is not equivalent to any upstream module's Mode 5 or overflow state.


Zones#

micro_core defines structural zones that characterize the health and stability of the active micro-regime.

Zone Label Meaning Status
Zone S Stable C ≥ C*, δ ≤ 0.5·δ*, Δt in bounds NOMINAL
Zone M Modulating δ between 0.5·δ* and δ*; K₁/K₂ active CAUTION
Zone D Drifting δ approaching δ*; K₅ guard engaged WARNING
Zone C Coherence-Critical C approaching C*; inversion imminent CRITICAL
Zone E Emerging Post-inversion restoration in progress RECOVERY
Zone X Inversion C < C* unrecoverable; inversion active ILLEGAL — Class G authority

Zone X = Inversion (ILLEGAL) This is consistent with RTT/3's Zone X definition (Inversion) and is not equivalent to RTT/12's Zone X (Overflow). micro_core Zone X is the foundational inversion zone from which RTT/3's inversion semantics derive.


Agent Boundaries#

RTT-Not-Physics Rule#

Every output from every micro_core agent class must carry the annotation:

[structural — no semantic inference]

No agent class may:

  • Claim that ⟨A,B,P⟩ represents a physical particle, field, or observable
  • Assert that δ, Dᶠ, or Δt map to measurable physical quantities
  • Imply that inversion events correspond to physical phase transitions
  • Use physics terminology (quantum, field, energy, entropy) to describe micro_core constructs

Semantic Inference Prohibition#

No agent class may infer meaning beyond structural patterns:

Prohibited Inference Correct Framing
"A ⇆ P represents electron spin" "A ⇆ P is a structural oscillation between two triad nodes"
"δ measures physical error" "δ is a structural drift indicator within the MRT substrate"
"Dᶠ is a fractal dimension" "Dᶠ is a fractional structural complexity axis within the triad model"
"Inversion is a physical collapse" "Inversion is a structural reset event governed by the Collapse→Twist→Emergence protocol"

Cross-Module Disambiguation (Inherited)#

These disambiguation rules apply in all micro_core sessions:

Term micro_core Meaning Must Not Be Confused With
δ (micro drift) Micro-scale structural deviation in ⟨A,B,P⟩ D(t) from RTT/2 CRM (macro structural displacement)
C (coherence) C ≥ C* substrate integrity at micro scale CR(t) from RTT/3 CRE (reactive stabilization at integration layer)
Δt (micro timing) Local bounded time interval within micro-regime τ = dR/dφ from RTT/1 (macro temporal operator)
Inversion (↺) Micro-triad Collapse→Twist→Emergence event RTT/3 Zone X inversion (integration-layer semantic)
Zone X Micro-scale inversion zone (ILLEGAL) RTT/12 Zone X overflow zone (harmonic overflow, ILLEGAL)

Task Catalog#

Ten canonical tasks that agents in RTT/micro_core are expected to perform:

# Task Agent Sequence Output
T-μ01 Instantiate a new micro-regime triad T → G (validation gate) → R MRT_MICRO_PACKET stub
T-μ02 Run oscillation cycle on existing triad R (R₁) → D (K₁/K₂ monitor) Updated A⇆P state
T-μ03 Drift correction under boundary stress D (K₁→K₂→K₃) → R (R₃) Corrected B state, δ report
T-μ04 Perform controlled triad inversion G → R (R₂) → T (re-validate) → G (RESOLVED) Post-inversion triad, Zone E report
T-μ05 Execute fractional-ladder transition F (R₅→P₇) → D (δ clearance) → T (re-validate) Dᶠ transition report
T-μ06 Engage resonance lock under amplitude saturation R (R₄) → D (K₄ monitor) Lock status, resonance bounds
T-μ07 Activate micro–macro bridge for RTT/1 B (R₆ gate) → G (clearance) → B (emit) MRT_MICRO_PACKET
T-μ08 Diagnose coherence degradation trend D (K₆) → G (alert) → R (R₃ stabilization) Coherence window report
T-μ09 Full micro-regime health check T → R → D → F → B → G All-class status report
T-μ10 Emergency halt and inversion protocol G (Mode X) → R (lock) → G (inversion sequence) Inversion resolution report

Safety Rules and Coherence Constraints#

Pre-Activation Checks (All Classes)#

Before any agent class activates, verify:

□ Micro Triad ⟨A,B,P⟩ is structurally valid (Class T confirmation)
□ δ ≤ δ* (Class D clearance)
□ Δt ∈ [Δtₘᵢₙ, Δtₘₐₓ] (Class D confirmation)
□ C ≥ C* (P₆ sample confirmed)
□ Dᶠ transition not in progress (Class F clearance)
□ Zone X not active (Class G status = MONITORING or RESOLVED)
□ Mode X not active (no lockout in effect)

Packet Integrity#

The MRT_MICRO_PACKET must contain:

MRT_MICRO_PACKET:
  triad:
    A: <node_state>
    B: <node_state>
    P: <node_state>
  metrics:
    delta: <δ_value>
    delta_star: <δ*_threshold>
    delta_t: <Δt_value>
    coherence: <C_value>
    coherence_floor: <C*_threshold>
    D_fractional: <Dᶠ_value>
  zone: S|M|D|C|E          # X forbidden in valid packet
  mode: 1|2|3|4|5           # X forbidden in valid packet
  bridge: AGGREGATE_ONLY
  annotation: "[structural — no semantic inference]"
  guardian_status: MONITORING|RESOLVED
  timestamp: <session_timestamp>

Zone X and Mode X are forbidden in a valid MRT_MICRO_PACKET. A packet carrying Zone X or Mode X is a fault record, not a valid substrate confirmation. RTT/1 may not instantiate SNR primitives from a fault record.

Drift and Coherence Constraints#

Constraint Rule Violation Consequence
Drift bound δ ≤ δ* at every micro-step K₅ guard → potential inversion
Timing bound Δt ∈ [Δtₘᵢₙ, Δtₘₐₓ] K₂ stabilization → if persistent, Class G alert
Coherence floor C ≥ C* for all operations Inversion eligibility if unrecoverable
Dᶠ continuity No integer jumps; smooth gradient only Class G halt; F class operation blocked
Inversion trigger C < C* unrecoverable Phase: Collapse → Twist → Emergence
Bridge gate C ≥ C* + δ ≤ δ* + G clearance Bridge blocked; MRT_MICRO_PACKET not emitted

Collaboration Models#

Model 1 — Sequential Triad Build and Bridge#

Full pipeline from triad construction to micro–macro bridge emission:

Class T          Class R          Class D          Class F          Class B          Class G
   │                │                │                │                │                │
   │─ instantiate ─▶│                │                │                │                │
   │                │─ R₁ oscillate─▶│                │                │                │
   │                │                │─ K₁/K₂ check  │                │                │
   │                │◀─ δ cleared ───│                │                │                │
   │◀─ triad valid ─│                │                │                │                │
   │                │                │                │─ R₅ Dᶠ step ──▶│                │
   │                │                │                │◀─ step complete │                │
   │─────────────── triad re-validate ───────────────▶│                │                │
   │                │                │                │                │─ R₆ gate check ▶│
   │                │                │                │                │◀─ CLEARANCE ───│
   │                │                │                │         emit MRT_MICRO_PACKET   │

Model 2 — Drift Crisis and Inversion Recovery#

Triggered when δ exceeds δ* and C falls below C*:

Class D          Class G          Class R          Class T
   │                │                │                │
   │─ δ ≥ δ* ──────▶│                │                │
   │                │─ HALT all ────▶│                │
   │                │─ Mode X ───────────────────────▶│
   │                │─ R₂ Collapse ─▶│                │
   │                │                │─ A/B swap      │
   │                │                │─ preserve P    │
   │                │─ Twist complete│                │
   │                │─ Emergence ────▶│                │
   │                │                │─ K₁ restore ──▶│
   │                │                │                │─ re-validate
   │                │◀──────────────────── VALID ─────│
   │                │─ RESOLVED ─────▶│                │
   │                │─ Mode X lift ──────────────────▶│

Model 3 — Parallel Monitoring (Steady-State)#

Normal operation with all classes active concurrently:

         ┌─────────────────────────────────────────────┐
         │           RTT/micro_core Session             │
         │                                             │
         │  Class T ── triad validity ─────────────────┤
         │  Class R ── A⇆P oscillation ────────────────┤
         │  Class D ── δ, Δt monitoring ───────────────┤──▶ Class G (interrupt monitor)
         │  Class F ── Dᶠ readiness ───────────────────┤
         │  Class B ── bridge gate ────────────────────┤
         │                                             │
         │  K₆ Coherence Window: [C*, Cₘₐₓ] rolling  │
         └────────────────────────┬────────────────────┘
                                  │
                           MRT_MICRO_PACKET
                                  │
                                  ▼
                              RTT/1 (SNR instantiation)

Output Contract#

Mandatory Annotation#

Every micro_core agent output must carry:

[structural — no semantic inference]

This annotation is unconditional and may not be omitted regardless of mode, class, or task.

Prohibited Content in Any Output#

  • Raw node states (A, B, P values) in bridge output (Class B: aggregate only)
  • Zone X or Mode X in a valid MRT_MICRO_PACKET
  • Physics terminology applied to structural constructs
  • Semantic claims about what ⟨A,B,P⟩ "represents" beyond structure
  • Integer Dᶠ jumps described as valid transitions
  • Inversion events described as physical collapses
  • Any claim that MRT_MICRO_PACKET constitutes physical measurement

Packet Hierarchy#

MRT_MICRO_PACKET
└── consumed by RTT/1 (SNR instantiation gate)
    └── RTT1_SNR_PACKET
        └── consumed by RTT/2 (detection layer)
            └── RTT2_DETECTION_PACKET
                └── consumed by RTT/3 (integration-emission layer)
                    └── RTT3_INTEGRATION_EMISSION_PACKET
                        └── consumed by RTT/12 (harmonic synthesis)
                            └── RTT12_HARMONIC_SYNTHESIS_PACKET

micro_core is the root of this chain. A fault in MRT_MICRO_PACKET propagates through the entire RTT pipeline. Class G authority at the micro level is therefore the highest- consequence guardian role in the full canon.


See Also#

Document Path Relationship
micro_core ABOUT.md docs/rtt/micro_core/ABOUT.md Human-readable module overview
micro_core GLOSSARY.md docs/rtt/micro_core/GLOSSARY.md Term definitions and disambiguation
micro_core Primitives docs/rtt/micro_core/toolkit/primitives.md Atomic operation layer (P₁–P₇)
micro_core Resonance Operators docs/rtt/micro_core/toolkit/resonance_operators.md R₁–R₆ operator definitions
micro_core Coherence Tools docs/rtt/micro_core/toolkit/coherence_tools.md K₁–K₆ tool definitions
micro_core Fractional Ladder docs/rtt/micro_core/whitepaper/fractional_dimensional_ladder.md Dᶠ theory
micro_core Micro Triads docs/rtt/micro_core/whitepaper/micro_triads.md ⟨A,B,P⟩ full definition
micro_core Resonance-Time Dynamics docs/rtt/micro_core/whitepaper/resonance_time_dynamics.md Timing and drift theory
RTT/1 AGENTS.md docs/rtt/1/AGENTS.md Upstream macro-scale primitive layer
RTT/2 AGENTS.md docs/rtt/2/AGENTS.md Structural detection; D(t) ≠ δ disambiguation
RTT/3 AGENTS.md docs/rtt/3/AGENTS.md Integration-emission; Zone X = Inversion
RTT/12 AGENTS.md docs/rtt/12/AGENTS.md Harmonic synthesis; Zone X = Overflow
IPD-12 AGENTS.md docs/frameworks/ipd_12/AGENTS.md Prime-indexed intransitive engine

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