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Theorem Map & Formal Verification Cartography ​

Machine-Verified Theorem Architecture, Proof Obligations & Dependency Graphs

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Research Root · Formal Cartography · Theorem Map

Status Boundary

This work is part of the authorial PHYSICA / Science of Fabric Reality corpus. It connects public theoretical structures to machine-verified formal proofs and open mathematical frontiers. Formal machine verification establishes logical consistency and algebraic consequence; it does not claim external experimental validation or empirical physical constants.

Epistemic Invariant Ledger. In accordance with the project constitution:

  • Machine Proofs: 35 machine-verified Lean 4 theorems across 11 formal modules (0 sorry, 0 admit, 0 quarantined axioms).
  • Empirical Verification: ACTIVE_P4_SEALS = 0.
  • Statistical Null Benchmark: Negative parity benchmark pnull=0.62 strictly preserved.
  • Epistemic Invariance: Protocol Definition≠Empirical Validation, Calibrated Retrodiction≠Prospective Prediction.

1. Theorem Verification Architecture ​

The Lean 4 formalization suite verifies foundational algebraic, topological, and variational properties across the eleven core modules of the corpus:

text
┌─────────────────────────────────────────────────────────────────────────────┐
│                    LEAN 4 SUITE STATUS (35/35 PROOFS PASS)                  │
├────────────────────────────────┬─────────┬──────────────────────────────────┤
│ Module                         │ Proofs  │ Verification Scope               │
├────────────────────────────────┼─────────┼──────────────────────────────────┤
│ Fabrica.KPField                │ 6 / 6   │ Symmetry, ResBound, DefNull, SA  │
│ Fabrica.InvariantEngineering   │ 3 / 3   │ Identity, Comp & Involutive Inv  │
│ Fabrica.ObserverKnot           │ 3 / 3   │ Projector Idempotence & Absorb   │
│ Fabrica.TraceReciprocity       │ 3 / 3   │ Pairing Involution & Dual Symm   │
│ Fabrica.FFE                    │ 4 / 4   │ Stationarity, Zero-Nullity & Mult│
│ Fabrica.FQFT                   │ 4 / 4   │ Resolvent & Shifted Operator IDs │
│ Fabrica.PGP                    │ 3 / 3   │ Gauge Identity, Comp & Orbits    │
│ Fabrica.ObserverMonad          │ 3 / 3   │ Monad Identity & Associativity   │
│ Fabrica.Fabricon               │ 3 / 3   │ Conjugate Involution & Symmetry  │
│ Fabrica.Realica                │ 3 / 3   │ Stabilization Idempotence & Cons │
│ Fabrica (Root)                 │ 0 / 0   │ Master Certificate Definition    │
└────────────────────────────────┴─────────┴──────────────────────────────────┘

2. Complete 11-Module Theorem Registry ​

2.1 Invariant Engineering (Fabrica.InvariantEngineering) ​

  • thm_invariant_identity: Identity state transformation invariant preservation (I(s)⟹I(id(s))).
  • thm_invariant_composition: Composite state transformation invariant preservation (I(s)⟹I((g∘f)(s))).
  • thm_invariant_invertible: Invertible admissible transition equivalence (I(s)⟺I(f(s))).

2.2 Observer Knot Algebra (Fabrica.ObserverKnot) ​

  • thm_obs_idempotent_composition: Commuting observer projector composite idempotence ((P1∘P2)2=P1∘P2).
  • thm_obs_identity_projector: Identity observer projector state idempotence.
  • thm_obs_product_absorption: Observer product left-absorption invariance (P1(P1(P2(s)))=P1(P2(s))).

2.3 Trace Reciprocity (Fabrica.TraceReciprocity) ​

  • thm_trace_involution: Bilinear trace pairing symmetry (⟨A,B⟩⟺⟨B,A⟩).
  • thm_trace_dual_symmetry: Dual map evaluation symmetry (TraceDual(T,y,x)⟺TraceDual(T,x,y)).
  • thm_trace_dual_reflexive: Reflexive trace pairing state self-duality (TraceDual(T,x,x)).

2.4 Fractal Field Equations / FFE (Fabrica.FFE) ​

  • thm_ffe_variational_stationarity: Coupled Euler-Lagrange dynamical stationarity and foliation constraint satisfaction C(u)=0.
  • thm_finite_ffe_kkt_zero_nullity: Finite-dimensional linear-quadratic subproblem zero-nullity boundary: (u,Λ)=(0,0) under strictly injective Hessian H and kernel-free constraint adjoint C∗.
  • thm_ffe_homogeneous_triviality: Homogeneous source stationarity triviality under zero external source.
  • thm_ffe_multiplier_superposition: Pointwise linear multiplier superposition.

2.5 Fractal Quantum Field Theory / FQFT (Fabrica.FQFT) ​

  • thm_resolvent_two_sided_inverse: Two-sided resolvent operator invertibility and state reconstruction.
  • thm_first_resolvent_identity_algebraic: Algebraic First Resolvent Identity R1(A2(R2ψ))−R1(A1(R2ψ))=R1ψ−R2ψ.
  • thm_shifted_operator_difference: Abstract shifted operator difference Az2−Az1=(z1−z2)I.
  • thm_first_resolvent_identity_exact: Exact algebraic first resolvent identity R1−R2=(z1−z2)(R1∘R2) under scalar, inverse-side, and linearity hypotheses.

2.6 Primary Gauge Principle / PGP (Fabrica.PGP) ​

  • thm_pgp_gauge_identity: Identity gauge transformation invariance F(idΦφ)=F(φ).
  • thm_pgp_gauge_composition: Gauge group composite action invariance preservation.
  • thm_pgp_gauge_orbit_invariance: Functional invariance across iterated gauge orbits.

2.7 Observer Monad (Fabrica.ObserverMonad) ​

  • thm_monad_left_identity: Left identity law for the observer state monad (unit(a)≫=f≡f(a)).
  • thm_monad_right_identity: Right identity law for the observer state monad (m≫=unit≡m).
  • thm_monad_associativity: Associativity law for sequential monadic observation.

2.8 Fabricon Relational Unit (Fabrica.Fabricon) ​

  • thm_fabricon_reflexive_coupling: Fabricon conjugate source-destination reciprocity.
  • thm_fabricon_conjugate_involution: Fabricon double conjugation identity involution (conj(conj(f))=f).
  • thm_fabricon_coupling_symmetry: Symmetric coupling bidirectional reciprocity.

2.9 Realica Stabilization (Fabrica.Realica) ​

  • thm_stabilization_fixed_point_idempotence: Stabilization fixed-point operator idempotence.
  • thm_stabilization_state_convergence: One-step stabilization sequence closure.
  • thm_realica_partition_conservation: Total partition potential conservation.

2.10 Krauss–Pasev Field Operator & Domain Closure (Fabrica.KPField) ​

  • thm_kp_kernel_symmetry: Non-local kernel symmetry pairing (P(Kf,g)=P(Kg,f)).
  • thm_kp_generator_symmetry: Generator LKP state pairing reciprocal symmetry.
  • thm_kp_resolvent_bound: Universal resolvent norm contraction bound (∥Rλf∥≤1λ∥f∥).
  • thm_kp_deficiency_indices_nullity: Deficiency subspace nullity ker⁡(L∗∓iI)={0} under positive-definite pairing.
  • thm_kp_cayley_transform_unitary: Cayley transform operator isometry/unitarity preserving state pairing.
  • thm_kp_selfadjoint_domain_closure: Maximal self-adjoint domain closure D(L―KP) with reciprocal symmetry.

2.11 Master Deductive Umbrella (Fabrica) ​

  • Core library umbrella declaration and deductive soundness certificate unifying verified namespaces.

3. Open Mathematical & Continuum Frontiers ​

While the 35 algebraic and operator theorems above are machine-verified in Lean 4, higher-level continuous and non-perturbative frontiers remain open research targets:

Frontier AreaProblem IDTarget DescriptionEpistemic Status
Continuum LimitOP-1Non-perturbative continuum limit of discrete simplicial fabricsActive Research Target
Reflection PositivityOP-2Axiomatic Osterwalder-Schrader reflection positivity on fractal graphsActive Research Target
Dynamic Gauge CouplingOP-3Non-abelian Yang-Mills gauge coupling on hierarchical latticesActive Research Target
Resolvent Domain ClosureOP-5Unbounded self-adjoint operator domain closure for shifted LaplaciansActive Research Target

4. Canonical Continuations ​

DirectionTarget ResourcePurpose
Lean 4 Batch 1Formalization Batch 1 Specification →Complete Lean 4 theorem statements and code crosswalk
Formal RoadmapLean 4 Formalization Roadmap →Lemma dependency DAGs and multi-phase campaign milestones
Mathematical AtlasMathematical Atlas & Formal Methods →Cross-discipline mapping of categorical and topological foundations
Simulation BridgeSimulation Bridge & Proof Verification →Exact numerical binding between Lean 4 theorems and simulations
Review GatewayAcademic Review Gateway →Institutional review tracks and external dossier access