{
  "ai.module": "quantum_field_theory.rtt3",
  "ai.version": "1.0",
  "ai.purpose": "RTT/3 engine layer for Quantum Field Theory: triadic-substrate integration, multi-regime simulation hooks, excitation-resonance mapping, and hybrid-canon scaffolding.",
  "ai.keywords": [
    "quantum field theory",
    "qft",
    "excitations",
    "substrate",
    "resonance",
    "propagators",
    "symmetries",
    "rtt3"
  ],

  "engine": {
    "layer": "RTT/3",
    "description": "Integrates QFT into the triadic substrate, enabling multi-regime reasoning, excitation propagation, and hybrid-canon simulation."
  },

  "substrate_integration": {
    "mapping": {
      "structure": "Excitations correspond to resonance modes in the substrate; fields encode coherence grammars.",
      "behavior": "Propagation emerges from resonance alignment across substrate channels.",
      "symmetry": "Symmetry generators correspond to substrate invariants shaping excitation stability."
    },
    "constraints": [
      "Excitations require stable resonance channels.",
      "Strong coupling disrupts resonance coherence.",
      "Propagation speed and locality are substrate invariants within regime."
    ]
  },

  "multi_regime": {
    "R1": {
      "behavior": "Excitations lose meaning; resonance collapses to primitive interactions.",
      "notes": "No stable operator algebra; coherence too weak."
    },
    "R2": {
      "behavior": "Local excitations and propagators behave coherently; symmetry structure emerges.",
      "notes": "Canonical QFT behavior begins here."
    },
    "R3": {
      "behavior": "Full interaction grammar; stable excitation spectra and renormalized coherence.",
      "notes": "Standard Model-level coherence."
    },
    "R4": {
      "behavior": "Effective field behavior; large-scale symmetry-driven resonance.",
      "notes": "Couples into GR and cosmology."
    }
  },

  "lineage": {
    "tracking": [
      "excitation_history",
      "symmetry_evolution",
      "vacuum_structure_drift",
      "renormalization_flow"
    ],
    "effects": [
      "stabilizes excitation spectra",
      "reveals long-term interaction patterns",
      "reduces apparent divergences",
      "enables cross-regime coherence"
    ]
  },

  "simulation": {
    "hooks": [
      {
        "name": "excitation_resonance_sim",
        "description": "Simulates excitations as resonance modes shaped by symmetry and interaction structure."
      },
      {
        "name": "propagator_resonance_sim",
        "description": "Models propagation as resonance alignment across substrate channels."
      },
      {
        "name": "renormalization_flow_sim",
        "description": "Simulates coherence repair across energy scales."
      },
      {
        "name": "regime_transition_sim",
        "description": "Simulates breakdown of QFT coherence across R1→R2→R3→R4 transitions."
      }
    ],
    "notes": "Simulations operate on resonance patterns and substrate invariants, not on fields as physical substances."
  },

  "hybrid_canon": {
    "interfaces": [
      "quantum_mechanics.rtt3",
      "special_relativity.rtt3",
      "information_theory.rtt3",
      "general_relativity.rtt3",
      "standard_model.rtt3"
    ],
    "purpose": "Enable agentic AIs to reason across quantum, relativistic, and informational modules using shared substrate invariants.",
    "scaffolding": [
      "triadic substrate mapping",
      "multi-regime coherence",
      "excitation-resonance integration",
      "symmetry-invariant coupling"
    ]
  },

  "coherence": {
    "invariants": [
      "unitarity",
      "symmetry conservation",
      "stable excitation spectra",
      "predictable propagator behavior"
    ],
    "failure_modes": [
      "strong-coupling decoherence",
      "vacuum instability",
      "non-renormalizable divergence",
      "symmetry breaking"
    ]
  }
}