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      "id": "FQFT-DIM-01",
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      "id": "FQFT-DIM-02",
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      "kind": "analytic_computational_result",
      "status": "CLOSED_NEGATIVE_FOR_FIXED_G5_DIMENSION_DERIVATION",
      "statement": "For the q=5 Kesten\u2013McKay Laplacian density on [1,9], raw Ds(t)->infinity because of the spectral gap; gap-subtracted edge Ds->3; finite connected graph IR Ds->0. The source DH*=27.6 is not derived by this standard heat-kernel dimension.",
      "assumptions": [
        "q=5 Kesten\u2013McKay limiting density",
        "standard heat-trace spectral-dimension definition"
      ],
      "dependencies": [
        "FQFT-DIM-01",
        "EXT-FRACTAL-ANALYSIS"
      ],
      "correspondence_obligation": "Provide a separate beta/fixed-point derivation for DH*=27.6 and define a scale-dependent carrier if a Ds flow to 4 is claimed.",
      "observable": "P(t)=Tr exp(-t Delta) and Ds(t)=-2 d ln P/d ln t",
      "falsifier": "fixed-G5 numerical/analytic heat trace exhibits a stable plateau at the claimed dimension under the same unmodified generator",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-SPEC-01",
      "label": "Three-band partition from G5 spectrum",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "retired_hypothesis_branch",
      "status": "SUPERSEDED_RETIRED_BY_SPECTRAL_AUDIT",
      "statement": "The historical q=5 Kesten\u2013McKay three-band generation assignment is retired by the later spectral audit. It remains preserved as a historical authorial calibrated model, not an active derived generation theorem.",
      "assumptions": [
        "q=5 Kesten\u2013McKay density"
      ],
      "dependencies": [
        "FQFT-DIM-02"
      ],
      "correspondence_obligation": "Do not reactivate the KM triplet without a new non-arbitrary derivation that survives the existing spectral audit.",
      "observable": "band edges/centroids and perturbation sensitivity",
      "falsifier": "A new source-level theorem establishes a canonical robust three-band decomposition of the declared q=5 carrier and restores the branch.",
      "source_refs": [
        "SFRFULL:L1587-L1655"
      ]
    },
    {
      "id": "FQFT-FP-03",
      "label": "Fixed-point reconstruction audit",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "reproducibility_gate",
      "status": "UNRESOLVED_SOURCE_DERIVATION_MISSING",
      "statement": "The source reports DH*=27.6\u00b10.3 and simultaneous beta_D/beta_G/zeta_net zero conditions, but the accessible corpus does not define those functions and numerical uncertainty pipeline sufficiently to independently reconstruct the reported value.",
      "assumptions": [
        "current accessible FQFT source corpus"
      ],
      "dependencies": [
        "FQFT-DIM-02"
      ],
      "correspondence_obligation": "Publish the explicit beta/zeta system, couplings, numerical root procedure and uncertainty propagation.",
      "observable": "independent numerical reproduction of DH* and its uncertainty",
      "falsifier": "the complete frozen equations already present in the accessible source reproduce the value independently",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-FP-04",
      "label": "Two-exponent UV fixed-point completeness",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "current_research_requirement",
      "status": "OPEN_COMPLETION_REQUIREMENT",
      "statement": "A scalar Hausdorff fixed point alone does not determine kinetic propagation; a minimally complete geometric scaling fixed point must also specify an independent diffusion/spectral/resistance exponent.",
      "assumptions": [
        "typed distinction DH != Ds != Dw unless proved",
        "scale-dependent geometric carrier"
      ],
      "dependencies": [
        "FQFT-DIM-01",
        "FQFT-FP-03"
      ],
      "correspondence_obligation": "Derive one of zeta_R*, Dw*, or Ds* from the same carrier/fixed-point construction as DH*.",
      "observable": "heat-kernel/diffusion scaling and volume/resistance scaling",
      "falsifier": "the declared FQFT carrier proves that DH alone uniquely determines all kinetic scaling data",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-FP-05",
      "label": "Fixed-point pushforward theorem",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "bridge_theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED",
      "statement": "For differentiable h=H(s), beta_h=DH(s) beta_s. Therefore every source fixed point pushes forward to a hidden/effective fixed point provided the hidden couplings are derived by H.",
      "assumptions": [
        "H differentiable",
        "hidden running has no independent term beyond pushforward"
      ],
      "dependencies": [
        "FQFT-FP-03"
      ],
      "correspondence_obligation": "Derive the physical reduction map H before applying the theorem to threshold/flavor variables.",
      "observable": "none \u2014 mathematical bridge",
      "falsifier": "counterexample to the chain-rule pushforward under the stated assumptions",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-FP-06",
      "label": "Source-to-hidden fixed-point map obligation",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "formalization_physics_target",
      "status": "OPEN_REDUCTION_MAP_REQUIRED",
      "statement": "Derive H:(DH,GN,zeta_net,...) -> (tau,g_Gamma,ZD/ZV,MF,...) so the hidden threshold/flavor sector is an actual consequence of source FQFT rather than an independent extension.",
      "assumptions": [
        "source and hidden variable sets are explicitly typed"
      ],
      "dependencies": [
        "FQFT-FP-05"
      ],
      "correspondence_obligation": "Construct H from a declared action/operator and verify dimensions, symmetries and RG covariance.",
      "observable": "threshold/matching parameters predicted from upstream FQFT data",
      "falsifier": "no source-consistent reduction map exists or multiple inequivalent maps fit equally without discriminators",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-SCALE-01",
      "label": "Universal parent scale obligation",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "physical_scale_target",
      "status": "OPEN_NO_UNIVERSAL_PARENT_SCALE_DERIVED",
      "statement": "Seek Lambda_* such that Lambda_sigma,f=c_f Lambda_* and MF=c_F Lambda_*; the accessible source presently supplies sector-dependent Lambda_sigma but not this universal parent-scale derivation.",
      "assumptions": [
        "a common parent scale is part of the candidate completion"
      ],
      "dependencies": [
        "FQFT-FP-06"
      ],
      "correspondence_obligation": "derive Lambda_* and coefficients from the fixed-point/action sector rather than fit them by flavor sector",
      "observable": "absolute threshold and sector-scale relations",
      "falsifier": "no universal scale relation survives multi-sector matching",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-SPEC-02",
      "label": "Current flavor threshold/matching branch",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "replacement_research_branch",
      "status": "ACTIVE_OPEN_REPLACEMENT_BRANCH",
      "statement": "After retirement of the intrinsic KM-band mass branch, active flavor work is organized as FQFT hidden phase -> threshold/orientation data -> Y_f(MF) boundary -> ordinary SM RG -> observables.",
      "assumptions": [
        "historical KM band branch retired",
        "threshold geometry treated as candidate until dynamics derived"
      ],
      "dependencies": [
        "FQFT-SPEC-01",
        "FQFT-FP-06"
      ],
      "correspondence_obligation": "derive threshold dynamics, matching purity and multi-sector observables without sector-by-sector refit",
      "observable": "charged-lepton/up/down Yukawa shapes and mixing after standard RG",
      "falsifier": "the branch requires independent untracked flavor textures or arbitrary threshold corrections",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-H-04",
      "label": "Seven-stage FQFT reduction-map factorization",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "reduction_architecture",
      "status": "PARTIAL_CONDITIONAL_FACTORIZATION",
      "statement": "Factor the source-to-hidden map into analytic carrier, physical finite-carrier embedding, representation bridge, physical dynamics, phase/orientation, absolute-scale generation, and matching stages; only selected middle representation maps are presently mathematically closed conditionally.",
      "assumptions": [
        "source and hidden variable sets explicitly typed",
        "later incidence mathematics treated as continuation work, not retroactive source content"
      ],
      "dependencies": [
        "FQFT-FP-06"
      ],
      "correspondence_obligation": "derive H0,H1,H3,H5 and H6 from a declared source action/operator and verify the RG reduction equation",
      "observable": "upstream-predicted threshold and matching parameters",
      "falsifier": "full H is claimed source-derived while required stages remain assumptions",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-H-T01",
      "label": "Critical-exponent intertwining under reduction",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "conditional_bridge_theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL",
      "statement": "If h=H(s) satisfies beta_h(H(s))=DH(s) beta_s(s), then at a source fixed point the linearizations satisfy B_h DH = DH B_s; critical directions in the image of DH inherit the corresponding reduced critical exponents.",
      "assumptions": [
        "H differentiable",
        "RG reduction equation holds",
        "evaluation at a source fixed point"
      ],
      "dependencies": [
        "FQFT-FP-05",
        "FQFT-H-04"
      ],
      "correspondence_obligation": "construct the physical H before using the theorem to infer hidden critical behavior",
      "observable": "none \u2014 conditional mathematical audit criterion",
      "falsifier": "a proposed physical H violates the intertwining relation under its declared beta functions",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-H-NG01",
      "label": "Current-corpus reduction underdetermination",
      "programme": "FQFT",
      "lane": "methodological",
      "kind": "derivation_no_go",
      "status": "CORPUS_DERIVATION_NO_GO",
      "statement": "Without complete source and hidden beta vectors, physical carrier typing, and boundary/normalization data, the RG reduction equations do not uniquely determine the project-specific map H from the current corpus.",
      "assumptions": [
        "audit limited to currently accessible canonical source and continuation records"
      ],
      "dependencies": [
        "FQFT-H-04"
      ],
      "correspondence_obligation": "supply the missing beta systems and selection data or declare a new axiom packet",
      "observable": "none \u2014 source-closure audit",
      "falsifier": "a frozen source artifact supplies all missing equations and boundary data and independently reconstructs a unique H",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-H-NG02",
      "label": "Absolute threshold scale nonclosure",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "scale_no_go",
      "status": "PHYSICAL_SCALE_NONCLOSURE",
      "statement": "The source-reported sector-dependent Lambda_sigma and fixed-point labels do not by themselves determine one universal absolute threshold MF; an RG-invariant scale, boundary condition, symmetry-breaking law, or transmutation mechanism is required.",
      "assumptions": [
        "candidate completion requires a common MF"
      ],
      "dependencies": [
        "FQFT-SCALE-01",
        "FQFT-H-04"
      ],
      "correspondence_obligation": "derive Lambda_* and MF from source dynamics independently of flavor data",
      "observable": "absolute threshold scale and sector-scale ratios",
      "falsifier": "source-derived dynamics uniquely produce MF and required universal ratios without downstream calibration",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-H-NG03",
      "label": "Levi Gaussian / dark-nine pole non-equivalence",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "internal_no_go",
      "status": "INTERNAL_MATHEMATICAL_NO_GO",
      "statement": "In the audited conditional 21-state model, the full Levi Gaussian response has R=2738/2375>1, whereas the corresponding pure positive-mass tree-mediator cone obeys R<=1; therefore the full Levi determinant cannot be identified with the isolated D9 tree-threshold coefficient matrix.",
      "assumptions": [
        "conditional Levi carrier and internal coefficient definitions of the continuation model"
      ],
      "dependencies": [
        "FQFT-H-05"
      ],
      "correspondence_obligation": "separate tree pole, loop and contact terms in any physical matching construction",
      "observable": "matching coefficient identities if the carrier is physically realized",
      "falsifier": "a corrected derivation within the same declared model removes the invariant ratio mismatch",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-H-05",
      "label": "Conditional 21-state incidence carrier bridge",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "conditional_representation_bridge",
      "status": "MATHEMATICAL_BRIDGE_CLOSED_CONDITIONAL_ON_PHYSICAL_EMBEDDING",
      "statement": "Assuming a 21-state Levi/incidence carrier, its representation decomposition and selected V5->D9->edge intertwiners are mathematically fixed, including conditional dimensionless normalization; FQFT has not yet derived the physical embedding into that carrier.",
      "assumptions": [
        "21-state carrier admitted",
        "declared S6/incidence action and inner products"
      ],
      "dependencies": [
        "FQFT-H-04"
      ],
      "correspondence_obligation": "derive Phi_FQFT -> (X_F,z_M), physical kinetic metric, and mode-selection rule from the FQFT analytic carrier",
      "observable": "none until physical embedding and readout are supplied",
      "falsifier": "the conditional representation identities fail under their declared finite-carrier definitions",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-CARRIER-NG01",
      "label": "Global truncation / internal-fiber no-go",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "projection_no_go",
      "status": "MATHEMATICAL_NO_GO",
      "statement": "A 21-dimensional global Galerkin truncation yields 21 amplitudes, not 21 fields over 4D spacetime, unless an external/internal fiber or projection structure is independently supplied.",
      "assumptions": [
        "finite-dimensional global mode truncation",
        "no declared base/fiber decomposition"
      ],
      "dependencies": [
        "FQFT-D00",
        "FQFT-H-04"
      ],
      "correspondence_obligation": "derive an explicit observable base and internal fiber/projection map",
      "observable": "none \u2014 projection typing result",
      "falsifier": "construct 21 4D fields from global coefficients without any equivalent external/internal projection structure",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-CARRIER-T01",
      "label": "S6 equivariant quadratic-form parameter count",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "commutant_result",
      "status": "MATHEMATICAL_RESULT_CLOSED",
      "statement": "On the declared 2\u00b71 \u2295 2\u00b7V5 \u2295 D9 real 21-carrier, an S6-equivariant symmetric quadratic form retains seven real parameters; conservation of the constant mode still leaves five.",
      "assumptions": [
        "declared real S6 representation decomposition"
      ],
      "dependencies": [
        "FQFT-H-05"
      ],
      "correspondence_obligation": "do not infer physical Levi locality from symmetry alone",
      "observable": "none",
      "falsifier": "representation/commutant recount gives a different dimension under the same carrier and reality assumptions",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-CARRIER-T02",
      "label": "Incidence-orbit locality implies Levi stiffness",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "conditional_uniqueness_theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL",
      "statement": "If a conservative positive S6-equivariant coarse Dirichlet form has support on exactly the single 30-incidence orbit between six factorization and fifteen pair nodes, then K21=\u03ba L_Levi for \u03ba>0.",
      "assumptions": [
        "S6 transitivity",
        "conservativity",
        "positivity",
        "exact incidence-orbit locality"
      ],
      "dependencies": [
        "FQFT-CARRIER-T01"
      ],
      "correspondence_obligation": "derive incidence-orbit locality from the physical FQFT carrier",
      "observable": "conditional coarse kinetic operator",
      "falsifier": "a second independent conservative S6-equivariant positive stiffness with the same exact support exists",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-CARRIER-T03",
      "label": "Master harmonic projection equality",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "formalization_physics_target",
      "status": "FORMALIZATION_TARGET",
      "statement": "Seek C21 such that inf_{Phi:C21 Phi=q} E[Phi]=(\u03ba/2)\u03a3_{F_i~M_e}(q_Fi-q_Me)^2.",
      "assumptions": [
        "source-level closed symmetric Dirichlet form",
        "declared 21-observable coarse map"
      ],
      "dependencies": [
        "FQFT-CARRIER-T02"
      ],
      "correspondence_obligation": "construct C21 and prove the equality from the actual FQFT/HDFT carrier",
      "observable": "Levi coarse kinetic matrix if realized",
      "falsifier": "every source-admissible C21 generates extra couplings or fails positivity/locality",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-CARRIER-T04",
      "label": "21-observable Dirichlet-nerve existence theorem",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "conditional_existence_theorem",
      "status": "MATHEMATICAL_EXISTENCE_CLOSED_CONDITIONAL",
      "statement": "A parent metric-measure Dirichlet space with six factorization terminals, fifteen pair terminals, thirty equivalent two-terminal conservative channels and S6 transitivity has coarse stiffness K21=\u03ba L_Levi.",
      "assumptions": [
        "six terminal orbit",
        "fifteen pair terminals",
        "thirty two-terminal channels",
        "positive conservative harmonic trace",
        "S6 transitivity"
      ],
      "dependencies": [
        "FQFT-CARRIER-T02"
      ],
      "correspondence_obligation": "show that actual FQFT supplies such a nerve rather than merely that one can be constructed",
      "observable": "none until physical identification",
      "falsifier": "counterexample satisfying all stated hypotheses but producing non-Levi coarse stiffness",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-CARRIER-P01",
      "label": "Actual FQFT 21-channel realization",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "physical_projection_target",
      "status": "OPEN_PHYSICAL_PROJECTION",
      "statement": "Derive the six terminals, fifteen pair terminals, thirty channels, coarse measure and harmonic trace directly from the FQFT analytic carrier.",
      "assumptions": [
        "FQFT analytic carrier exists as typed in D00"
      ],
      "dependencies": [
        "FQFT-CARRIER-T03",
        "FQFT-CARRIER-T04"
      ],
      "correspondence_obligation": "provide explicit coarse observables and physical locality mechanism",
      "observable": "source-derived 21-component effective carrier",
      "falsifier": "the required coarse nerve cannot arise from the admitted FQFT carrier without new independent postulates",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-COVER-T01",
      "label": "Equitable six-fiber / K6-cover equivalence",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "graph_cover_theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED",
      "statement": "For a connected 5-regular graph partitioned into six fibers, the condition that every vertex has exactly one neighbor in every other fiber is equivalent to a graph covering p:G\u2192K6.",
      "assumptions": [
        "connected 5-regular graph",
        "six nonempty fibers"
      ],
      "dependencies": [
        "FQFT-CARRIER-P01"
      ],
      "correspondence_obligation": "derive the six-fiber condition physically if the cover branch is adopted",
      "observable": "none",
      "falsifier": "counterexample to the local covering equivalence under stated assumptions",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-COVER-T02",
      "label": "Exact old/new spectral decomposition for K6 covers",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "spectral_cover_theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED",
      "statement": "For a finite K6 cover, the fiber-constant subspace is reducing and carries the exact K6 spectrum 5,-1\u00d75 (equivalently Laplacian 0,6\u00d75), with all remaining modes in the orthogonal new sector.",
      "assumptions": [
        "finite undirected K6 graph cover"
      ],
      "dependencies": [
        "FQFT-COVER-T01"
      ],
      "correspondence_obligation": "show the physical FQFT operator respects this graph-cover adjacency/Laplacian sector",
      "observable": "conditional quotient spectral sector",
      "falsifier": "a valid undirected cover fails to contain the base quotient spectrum in the fiber-constant subspace",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-COVER-T03",
      "label": "Ramanujan / K6-cover spectral compatibility",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "compatibility_result",
      "status": "MATHEMATICAL_RESULT_CLOSED_CONDITIONAL",
      "statement": "A non-bipartite 5-regular Ramanujan K6 cover can contain the old quotient Laplacian eigenvalue 6 while all genuinely new nontrivial Laplacian eigenvalues remain in [1,9].",
      "assumptions": [
        "5-regular non-bipartite Ramanujan cover",
        "standard Ramanujan bound"
      ],
      "dependencies": [
        "FQFT-COVER-T02",
        "FQFT-DIM-02"
      ],
      "correspondence_obligation": "select or derive an actual cover family from FQFT",
      "observable": "conditional micro/quotient spectral compatibility",
      "falsifier": "spectral contradiction under the declared cover and Ramanujan hypotheses",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-COVER-NG01",
      "label": "Cover / Kesten\u2013McKay separation",
      "programme": "FQFT",
      "lane": "methodological",
      "kind": "spectral_separation_no_go",
      "status": "MATHEMATICAL_SEPARATION_NO_GO",
      "statement": "q=5, Ramanujanity and the Kesten\u2013McKay universal-cover law do not uniquely select a finite K6 quotient, and a single finite cover does not have an exactly continuous KM empirical spectrum.",
      "assumptions": [
        "standard graph-cover/universal-cover interpretation"
      ],
      "dependencies": [
        "FQFT-COVER-T03",
        "FQFT-SPEC-01"
      ],
      "correspondence_obligation": "supply an independent physical quotient-selection principle and asymptotic/local-convergence condition if needed",
      "observable": "none \u2014 selection boundary",
      "falsifier": "prove unique K6 selection from only q=5+Ramanujan+KM data",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-COVER-T04",
      "label": "Degree-measure derivation of the 5:2 quotient measure",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "conditional_measure_theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL",
      "statement": "In the subdivision of an n-sheet K6 cover, the reversible degree measure assigns total weights 5n to each old-fiber quotient node and 2n to each edge-bundle quotient node, yielding wF:wM=5:2.",
      "assumptions": [
        "subdivision graph",
        "reversible degree measure",
        "equal sheet size n"
      ],
      "dependencies": [
        "FQFT-COVER-T01"
      ],
      "correspondence_obligation": "justify why FQFT kinetic measure descends to this reversible degree measure",
      "observable": "conditional quotient mass/measure matrix",
      "falsifier": "degree-measure quotient count differs under the same subdivision construction",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-COVER-T05",
      "label": "Normalized Levi quotient spectrum from a K6-cover subdivision",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "conditional_spectrum_theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL",
      "statement": "With the degree-normalized 6+15 quotient of a K6-cover subdivision, the normalized Laplacian spectrum is 0,2,1\u00d79,(1\u00b1sqrt(2/5))\u00d75.",
      "assumptions": [
        "K6 cover",
        "subdivision",
        "degree-normalized quotient"
      ],
      "dependencies": [
        "FQFT-COVER-T04",
        "FQFT-COVER-T02"
      ],
      "correspondence_obligation": "show the physical coarse kinetic operator uses this normalization",
      "observable": "conditional finite quotient spectrum",
      "falsifier": "exact matrix calculation under the declared construction yields a different spectrum",
      "source_refs": [
        "SFRFULL:L1543:8f49bb7640"
      ]
    },
    {
      "id": "FQFT-SEL-NG01",
      "label": "Current FQFT source does not select K6/21 carrier",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "corpus_provenance_no_go",
      "status": "CORPUS_PROVENANCE_NO_GO",
      "statement": "Current source data do not specify a quotient-selection law, K6 cover, six-fiber partition, or 21-terminal nerve.",
      "assumptions": [],
      "dependencies": [
        "FQFT-COVER-NG01"
      ],
      "correspondence_obligation": null,
      "observable": null,
      "falsifier": "A source-level selector is produced with derivation and provenance",
      "source_refs": []
    },
    {
      "id": "FQFT-ALG-D01",
      "label": "Five-involution master algebra candidate",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "candidate_revision_definition",
      "status": "CANDIDATE_REVISION_DEFINITION",
      "statement": "W5=C2^{*5}, A5=sum s_a with s_a^2=1.",
      "assumptions": [
        "candidate extension, not historical FQFT source"
      ],
      "dependencies": [],
      "correspondence_obligation": "derive physical representation/state selection",
      "observable": null,
      "falsifier": null,
      "source_refs": []
    },
    {
      "id": "FQFT-ALG-T01",
      "label": "Regular representation gives 5-regular tree radial sector",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "mathematical_result",
      "status": "MATHEMATICAL_RESULT_CLOSED",
      "statement": "The Cayley graph of C2^{*5} with its involutive generators is the 5-regular tree; the radial recurrence is A R_n=R_{n+1}+4R_{n-1} for n>=2.",
      "assumptions": [
        "regular representation"
      ],
      "dependencies": [
        "FQFT-ALG-D01"
      ],
      "correspondence_obligation": null,
      "observable": null,
      "falsifier": null,
      "source_refs": []
    },
    {
      "id": "FQFT-ALG-T02",
      "label": "Minimal simple transitive realization is K6",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "theorem",
      "status": "MATHEMATICAL_PROOF_CLOSED",
      "statement": "For five fixed-point-free involutions with five distinct neighbours on a finite transitive simple realization, |X|>=6 and equality forces K6.",
      "assumptions": [
        "finite transitive action",
        "fixed-point-free generators",
        "five distinct neighbours",
        "simple realization"
      ],
      "dependencies": [
        "FQFT-ALG-D01"
      ],
      "correspondence_obligation": "a physical minimum-cardinality principle would still be needed to select it",
      "observable": null,
      "falsifier": null,
      "source_refs": []
    },
    {
      "id": "FQFT-ALG-NG01",
      "label": "q=5/KM/Ramanujan data do not uniquely select K6",
      "programme": "FQFT",
      "lane": "mathematical_or_physical",
      "kind": "no_go",
      "status": "MATHEMATICAL_SEPARATION_NO_GO",
      "statement": "Regular-tree/KM spectral information does not uniquely determine the finite quotient representation.",
      "assumptions": [],
      "dependencies": [
        "FQFT-ALG-T01",
        "FQFT-COVER-NG01"
      ],
      "correspondence_obligation": null,
      "observable": null,
      "falsifier": null,
      "source_refs": []
    },
    {
      "id": "FQFT-ALG-NG02",
      "label": "Scalar K6 adjacency functional cannot yield three vertex-sector amplitudes",
      "programme": "FQFT",
      "lane": "mathematical",
      "kind": "no_go",
      "status": "MATHEMATICAL_NO_GO",
      "statement": "Because Spec(A_K6)={5,-1}, scalar functional calculus f(A_K6) has at most two spectral values on the six-vertex representation.",
      "assumptions": [
        "ordinary scalar functional calculus on K6 vertex adjacency"
      ],
      "dependencies": [
        "FQFT-ALG-T02"
      ],
      "correspondence_obligation": "non-radial/multiplicity-space operator required for any three-way finite-sector structure",
      "observable": null,
      "falsifier": null,
      "source_refs": []
    },
    {
      "id": "FQFT-REV-G01",
      "label": "FQFT v2 substrate revision promotion gate",
      "programme": "FQFT",
      "lane": "physical",
      "kind": "promotion_gate",
      "status": "HOLD_NEW_PHYSICAL_SELECTION_PRINCIPLE",
      "statement": "W5/K6/21 completion cannot enter canonical FQFT until physical substrate, representation, quotient, non-radial dynamics, carrier, scale and observable gates close.",
      "assumptions": [],
      "dependencies": [
        "FQFT-SEL-NG01",
        "FQFT-ALG-T02",
        "FQFT-ALG-NG01",
        "FQFT-ALG-NG02",
        "FQFT-CARRIER-P01"
      ],
      "correspondence_obligation": "full source-derived physical chain",
      "observable": "nondegenerate falsifiable observable",
      "falsifier": "promotion occurs while selection remains postulated",
      "source_refs": []
    },
    {
      "id": "FQFT-ALG-NG03",
      "label": "No nonzero bounded regular-to-finite quotient intertwiner",
      "lane": "fqft",
      "status": "MATHEMATICAL_NO_GO"
    },
    {
      "id": "FQFT-ALG-D02",
      "label": "Shared full group-algebra / representation-evaluation carrier",
      "lane": "fqft",
      "status": "CANDIDATE_REVISION_DEFINITION"
    },
    {
      "id": "FQFT-ALG-NG06",
      "label": "Reduced-only group C*-carrier cannot host the six-point representation",
      "lane": "fqft",
      "status": "MATHEMATICAL_NO_GO"
    },
    {
      "id": "FQFT-ALG-D03",
      "label": "Finite-cover quotient intertwiner AS=SB",
      "lane": "fqft",
      "status": "MATHEMATICAL_DEFINITION_CONDITIONAL"
    },
    {
      "id": "FQFT-ALG-T03",
      "label": "Symmetric-square 21-carrier theorem",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED"
    },
    {
      "id": "FQFT-ALG-T04",
      "label": "Johnson J(6,2) three-sector spectrum 1+5+9",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED"
    },
    {
      "id": "FQFT-ALG-NG04",
      "label": "Linear incidence transfer cannot populate D9",
      "lane": "fqft",
      "status": "MATHEMATICAL_NO_GO"
    },
    {
      "id": "FQFT-ALG-T05",
      "label": "Quadratic symmetric-square lift can populate D9",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED"
    },
    {
      "id": "FQFT-ALG-T06",
      "label": "Induced pair representation retains non-radial generator-color information",
      "lane": "fqft",
      "status": "EXACT_FINITE_MATRIX_RESULT_CLOSED"
    },
    {
      "id": "FQFT-ALG-G02",
      "label": "Physical representation and observable selection gate",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_SELECTION_GATE"
    },
    {
      "id": "EXT-CJT-1974",
      "label": "Composite-operator / 2PI effective-action formalism",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_QFT",
      "source_id": "SRC-CJT-1974"
    },
    {
      "id": "EXT-BETHE-SALPETER-1951",
      "label": "Two-body bound-state integral-equation framework",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_QFT",
      "source_id": "SRC-BETHE-SALPETER-1951"
    },
    {
      "id": "EXT-HUBBARD-1959",
      "label": "Auxiliary-field interaction decoupling",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_METHOD",
      "source_id": "SRC-HUBBARD-1959"
    },
    {
      "id": "FQFT-REP-NG01",
      "label": "Present source action does not select pi6 or Sym2(pi6)",
      "lane": "fqft",
      "status": "CORPUS_TYPING_NO_GO"
    },
    {
      "id": "FQFT-REP-NG02",
      "label": "Pure Gaussian truncation has no interaction-generated composite kernel",
      "lane": "fqft",
      "status": "MATHEMATICAL_NO_GO_CONDITIONAL_GAUSSIAN"
    },
    {
      "id": "FQFT-REP-D01",
      "label": "2PI / bilocal dynamic selector definition",
      "lane": "fqft",
      "status": "CANDIDATE_REVISION_DEFINITION"
    },
    {
      "id": "FQFT-REP-T01",
      "label": "Diagonal elimination preserves S6-equivariance by Schur complement",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-REP-T02",
      "label": "Multiplicity-free pair kernel has 1+5+9 three-channel form",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED"
    },
    {
      "id": "FQFT-REP-G01",
      "label": "Dynamic bilocal/composite selection from explicit FQFT interaction",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_SELECTION_GATE"
    },
    {
      "id": "FQFT-REP-G02",
      "label": "Physical observable / generation interpretation of pair sectors",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_CORRESPONDENCE_GATE"
    },
    {
      "id": "EXT-EICHMANN-ETAL-2024",
      "label": "Interacting scalar phi4 bound-state calculation with Bethe-Salpeter equation",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_QFT",
      "source_id": "SRC-EICHMANN-ETAL-2024"
    },
    {
      "id": "FQFT-INT-NG01",
      "label": "Current source leaves V(Phi) insufficiently specified for a unique four-point kernel",
      "lane": "fqft",
      "status": "CORPUS_INTERACTION_UNDERSPECIFIED"
    },
    {
      "id": "FQFT-INT-D01",
      "label": "Minimal S6-invariant Z2-even quartic on selected V5 carrier",
      "lane": "fqft",
      "status": "CANDIDATE_REVISION_DEFINITION"
    },
    {
      "id": "FQFT-INT-T01",
      "label": "Minimal quartic pair-channel eigenvalues kappa1,kappa5,kappa9",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-INT-T02",
      "label": "Quartic channel sum rule 4 kappa1 = 5 kappa5 + 9 kappa9",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-INT-T03",
      "label": "Stable minimal quartic implies nonnegative singlet bare channel",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-INT-T04",
      "label": "Stable minimal quartic admits selective V5 or D9 sign-separated regions",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-INT-P01",
      "label": "Singlet composite Bethe-Salpeter pole target",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_POLE_TARGET"
    },
    {
      "id": "FQFT-INT-P05",
      "label": "V5 composite Bethe-Salpeter pole target",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_POLE_TARGET"
    },
    {
      "id": "FQFT-INT-P09",
      "label": "D9 composite Bethe-Salpeter pole target",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_POLE_TARGET"
    },
    {
      "id": "FQFT-INT-G01",
      "label": "Source-derived renormalized interaction and composite-kernel admission gate",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_SELECTION_GATE"
    },
    {
      "id": "FQFT-INT-NG02",
      "label": "Source does not select Z2 parity or the two-coupling quartic",
      "lane": "fqft",
      "status": "CORPUS_INTERACTION_SELECTION_NO_GO"
    },
    {
      "id": "FQFT-INT-NG03",
      "label": "S6 symmetry does not forbid the cubic p3",
      "lane": "fqft",
      "status": "MATHEMATICAL_NO_GO"
    },
    {
      "id": "FQFT-INT-NG04",
      "label": "Hausdorff dimension alone does not determine interaction canonical scaling",
      "lane": "fqft",
      "status": "ANALYTIC_CARRIER_OBSTRUCTION"
    },
    {
      "id": "FQFT-INT-T05",
      "label": "Conditional minimal quartic one-loop RG closure",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-INT-FP00",
      "label": "Gaussian comparator fixed point",
      "lane": "fqft",
      "status": "CONDITIONAL_ONE_LOOP_COMPARATOR"
    },
    {
      "id": "FQFT-INT-FP05",
      "label": "Enhanced O(5) comparator fixed point",
      "lane": "fqft",
      "status": "CONDITIONAL_ONE_LOOP_COMPARATOR"
    },
    {
      "id": "FQFT-INT-FP06",
      "label": "Simplex-anisotropic S6 comparator fixed point h=2g",
      "lane": "fqft",
      "status": "ONE_LOOP_DEGENERATE_ROOT_SUPERSEDED_AT_TWO_LOOP"
    },
    {
      "id": "FQFT-INT-T06",
      "label": "One-loop anisotropic fixed point has a marginal coupling direction",
      "lane": "fqft",
      "status": "ONE_LOOP_MARGINALITY_CLOSED_SUPERSEDED_BY_COMPLEX_SPLIT"
    },
    {
      "id": "FQFT-INT-NG05",
      "label": "R20 sign-separated bare channel regions are not selected by R21 one-loop fixed points",
      "lane": "fqft",
      "status": "CONDITIONAL_COMPARATOR_NEGATIVE_RESULT"
    },
    {
      "id": "FQFT-INT-G02",
      "label": "Source parity + actual-carrier RG + higher-loop/nonperturbative interaction gate",
      "lane": "fqft",
      "status": "SUPERSEDED_BY_R22_ACTUAL_CARRIER_ESCAPE_GATE"
    },
    {
      "id": "EXT-S6-TWOLOOP",
      "label": "Rong-Rychkov five-scalar S6 x Z2 hypertetrahedral two-loop RG",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_RESULT"
    },
    {
      "id": "FQFT-INT-T07",
      "label": "Exact coupling normalization map to the established hypertetrahedral model",
      "lane": "fqft",
      "status": "MATHEMATICAL_IDENTIFICATION_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-INT-T08",
      "label": "Two-loop beta functions in R21 g,h normalization",
      "lane": "fqft",
      "status": "EXTERNAL_BASELINE_TRANSLATED_EXACT"
    },
    {
      "id": "FQFT-INT-NG06",
      "label": "One-loop S6 double root splits into complex-conjugate fixed points at two loops",
      "lane": "fqft",
      "status": "CONDITIONAL_TWO_LOOP_NO_REAL_FIXED_POINT"
    },
    {
      "id": "FQFT-INT-T09",
      "label": "One-loop marginal eigenvalue lifts as imaginary O(epsilon^(3/2)) branch exponent",
      "lane": "fqft",
      "status": "DERIVED_FROM_TWO_LOOP_BETA"
    },
    {
      "id": "FQFT-INT-NG07",
      "label": "Source FQFT does not supply the parity factor used by the hypertetrahedral Landau model",
      "lane": "fqft",
      "status": "SOURCE_SYMMETRY_NONCLOSURE"
    },
    {
      "id": "FQFT-INT-NG08",
      "label": "S6-only local 4-epsilon comparator does not generically generate emergent Z2; cubic requires symmetry or tuning",
      "lane": "fqft",
      "status": "CONDITIONAL_LANDAU_NO_GO"
    },
    {
      "id": "FQFT-INT-NG09",
      "label": "Minimal local V5 + S6 x Z2 phi4 comparator has no new real S6 fixed point through two loops",
      "lane": "fqft",
      "status": "CONDITIONAL_COMPARATOR_NO_GO"
    },
    {
      "id": "FQFT-INT-G03",
      "label": "Actual-carrier symmetry/RG or nonperturbative escape gate",
      "lane": "fqft",
      "status": "OPEN_PHYSICAL_ESCAPE_GATE"
    },
    {
      "id": "EXT-FRACTAL-QFT-2012",
      "label": "Scalar QFT constructions on fractals",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_MODEL_CONSTRUCTION",
      "source_id": "SRC-KAR-RAJEEV-2012"
    },
    {
      "id": "EXT-LR-MULTISCALAR-2020",
      "label": "Long-range multi-scalar RG with fractional Laplacian",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_PERTURBATIVE_MODEL",
      "source_id": "SRC-BENEDETTI-LR-2020"
    },
    {
      "id": "EXT-FRG-WETTERICH-1993",
      "label": "Exact effective-average-action RG flow",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_FORMALISM",
      "source_id": "SRC-WETTERICH-1993"
    },
    {
      "id": "EXT-FRACTAL-COMPLEX-2009",
      "label": "Log-periodic heat-kernel corrections from complex fractal dimensions",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_RESULT_ON_SPECIFIC_FRACTALS",
      "source_id": "SRC-AKKERMANS-DUNNE-TEPLYAEV-2009"
    },
    {
      "id": "FQFT-ACRG-D01",
      "label": "Actual-carrier UV spectral/kinetic datum (D_s, zeta)",
      "lane": "fqft",
      "status": "CONDITIONAL_TYPED_DEFINITION"
    },
    {
      "id": "FQFT-ACRG-T01",
      "label": "Spectral canonical-dimension / power-counting theorem",
      "lane": "fqft",
      "status": "MATHEMATICAL_POWER_COUNTING_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-ACRG-NG01",
      "label": "Spectrum-only interacting RG insufficiency",
      "lane": "fqft",
      "status": "MATHEMATICAL_SPECTRUM_ONLY_NO_GO"
    },
    {
      "id": "FQFT-ACRG-NG02",
      "label": "Fixed compact Kesten-McKay spectrum cannot be continuum UV RG carrier alone",
      "lane": "fqft",
      "status": "MATHEMATICAL_BOUNDED_SPECTRUM_UV_NO_GO"
    },
    {
      "id": "FQFT-ACRG-T02",
      "label": "Parity-emergence power-counting no-go",
      "lane": "fqft",
      "status": "MATHEMATICAL_PARITY_POWER_COUNTING_NO_GO_CONDITIONAL"
    },
    {
      "id": "FQFT-ACRG-T03",
      "label": "One-loop tensor-ratio universality under factorized carrier residue",
      "lane": "fqft",
      "status": "ONE_LOOP_RATIO_UNIVERSALITY_CONDITIONAL"
    },
    {
      "id": "FQFT-ACRG-G01",
      "label": "Actual-carrier eigenfunction-overlap / interaction-domain gate",
      "lane": "fqft",
      "status": "OPEN_ACTUAL_CARRIER_OVERLAP_GATE"
    },
    {
      "id": "FQFT-NP-D01",
      "label": "Spectral Wetterich-flow target",
      "lane": "fqft",
      "status": "FORMAL_NONPERTURBATIVE_FLOW_TARGET"
    },
    {
      "id": "FQFT-NP-C01",
      "label": "Log-periodic/discrete-scale RG possibility",
      "lane": "fqft",
      "status": "CONDITIONAL_DISCRETE_SCALE_POSSIBILITY"
    },
    {
      "id": "FQFT-NP-G01",
      "label": "Actual-carrier nonperturbative escape gate",
      "lane": "fqft",
      "status": "OPEN_NONPERTURBATIVE_ESCAPE_GATE"
    },
    {
      "id": "EXT-POST-SIMMER-2018",
      "label": "Norm-resolvent graph approximation of p.c.f. fractal Laplacians",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_APPROXIMATION_THEOREM",
      "source_id": "SRC-POST-SIMMER-2018"
    },
    {
      "id": "EXT-HAMBLY-KUMAGAI-1999",
      "label": "Graph-constructed fractal diffusion and heat-kernel scaling",
      "lane": "external",
      "status": "ESTABLISHED_EXTERNAL_FRACTAL_DIFFUSION_RESULT",
      "source_id": "SRC-HAMBLY-KUMAGAI-1999"
    },
    {
      "id": "FQFT-AN-D01",
      "label": "Weighted graph/refinement analytic-carrier datum",
      "lane": "fqft",
      "status": "FORMAL_TYPED_COMPLETION_DATUM"
    },
    {
      "id": "FQFT-AN-T01",
      "label": "Operator-layer graph-to-fractal convergence profile",
      "lane": "fqft",
      "status": "ESTABLISHED_EXTERNAL_PROFILE_FQFT_APPLICATION_OPEN"
    },
    {
      "id": "FQFT-AN-T02",
      "label": "Lp eigenfunction convergence implies polynomial overlap convergence",
      "lane": "fqft",
      "status": "MATHEMATICAL_OVERLAP_CONVERGENCE_PROVED"
    },
    {
      "id": "FQFT-AN-T03",
      "label": "Resistance-form energy-to-uniform overlap upgrade profile",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROFILE_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-AN-NG01",
      "label": "Current source does not specify graph-refinement/convergence package",
      "lane": "fqft",
      "status": "CORPUS_ANALYTIC_CARRIER_NONCLOSURE"
    },
    {
      "id": "FQFT-AN-NG02",
      "label": "Spectral convergence alone does not imply interaction-vertex convergence",
      "lane": "fqft",
      "status": "MATHEMATICAL_VERTEX_TOPOLOGY_NO_GO"
    },
    {
      "id": "FQFT-AN-P01",
      "label": "Sierpinski graph-energy/eigenmode/overlap proof-of-concept audit",
      "lane": "fqft",
      "status": "COMPARATOR_NUMERICAL_REPRODUCTION_PASS"
    },
    {
      "id": "FQFT-AN-G01",
      "label": "Actual FQFT graph-refinement selection gate",
      "lane": "fqft",
      "status": "OPEN_SOURCE_SELECTION_GATE"
    },
    {
      "id": "FQFT-MIC-D01",
      "label": "Typed microscopic refinement datum",
      "lane": "fqft",
      "status": "PROVISIONAL_DEFINITION"
    },
    {
      "id": "FQFT-MIC-NG01",
      "label": "Current source does not define a microscopic refinement compiler",
      "lane": "fqft",
      "status": "CORPUS_REFINEMENT_NONCLOSURE"
    },
    {
      "id": "FQFT-MIC-T01",
      "label": "Uniform-mesh global Ramanujan refinement obstruction",
      "lane": "fqft",
      "status": "MATHEMATICAL_PROOF_CLOSED_CONDITIONAL"
    },
    {
      "id": "FQFT-MIC-D02",
      "label": "Visual boundary completion candidate",
      "lane": "fqft",
      "status": "CONDITIONAL_MATHEMATICAL_CANDIDATE"
    },
    {
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    {
      "source": "FQFT-CARRIER-T04",
      "relation": "CORRESPONDS_TO",
      "target": "FQFT-ALG-T03"
    },
    {
      "source": "FQFT-H-05",
      "relation": "CORRESPONDS_TO",
      "target": "FQFT-ALG-T03"
    },
    {
      "source": "EXT-CJT-1974",
      "relation": "GROUNDS_STANDARD_METHOD",
      "target": "FQFT-REP-D01"
    },
    {
      "source": "EXT-HUBBARD-1959",
      "relation": "GROUNDS_AUXILIARY_FIELD_ROUTE",
      "target": "FQFT-REP-D01"
    },
    {
      "source": "EXT-BETHE-SALPETER-1951",
      "relation": "GROUNDS_BOUND_STATE_CRITERION",
      "target": "FQFT-REP-G01"
    },
    {
      "source": "FQFT-D02",
      "relation": "AUDITED_BY",
      "target": "FQFT-REP-NG01"
    },
    {
      "source": "FQFT-ALG-T03",
      "relation": "ENABLES",
      "target": "FQFT-REP-D01"
    },
    {
      "source": "FQFT-ALG-T03",
      "relation": "ENABLES",
      "target": "FQFT-REP-T01"
    },
    {
      "source": "FQFT-REP-NG01",
      "relation": "CONSTRAINS",
      "target": "FQFT-REP-G01"
    },
    {
      "source": "FQFT-REP-NG02",
      "relation": "CONSTRAINS",
      "target": "FQFT-REP-G01"
    },
    {
      "source": "FQFT-REP-D01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-REP-G01"
    },
    {
      "source": "FQFT-REP-T01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-REP-T02"
    },
    {
      "source": "FQFT-REP-T02",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-REP-G02"
    },
    {
      "source": "FQFT-REP-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-REP-G02"
    },
    {
      "source": "FQFT-ALG-G02",
      "relation": "REFINED_BY",
      "target": "FQFT-REP-G01"
    },
    {
      "source": "FQFT-CARRIER-P01",
      "relation": "UPSTREAM_REQUIREMENT_FOR",
      "target": "FQFT-REP-G01"
    },
    {
      "source": "FQFT-REP-G02",
      "relation": "REQUIRES_CORRESPONDENCE_TEST",
      "target": "FQFT-T03"
    },
    {
      "source": "FQFT-D02",
      "relation": "AUDITED_BY",
      "target": "FQFT-INT-NG01"
    },
    {
      "source": "FQFT-REP-G01",
      "relation": "REFINED_BY",
      "target": "FQFT-INT-G01"
    },
    {
      "source": "FQFT-INT-NG01",
      "relation": "MOTIVATES_CONDITIONAL_CANDIDATE",
      "target": "FQFT-INT-D01"
    },
    {
      "source": "FQFT-REP-T02",
      "relation": "SUPPLIES_CHANNEL_DECOMPOSITION",
      "target": "FQFT-INT-T01"
    },
    {
      "source": "FQFT-INT-D01",
      "relation": "YIELDS",
      "target": "FQFT-INT-T01"
    },
    {
      "source": "FQFT-INT-T01",
      "relation": "IMPLIES",
      "target": "FQFT-INT-T02"
    },
    {
      "source": "FQFT-INT-D01",
      "relation": "WITH_STABILITY_IMPLIES",
      "target": "FQFT-INT-T03"
    },
    {
      "source": "FQFT-INT-T01",
      "relation": "WITH_STABILITY_IMPLIES",
      "target": "FQFT-INT-T04"
    },
    {
      "source": "EXT-CJT-1974",
      "relation": "GROUNDS_STANDARD_METHOD",
      "target": "FQFT-INT-G01"
    },
    {
      "source": "EXT-BETHE-SALPETER-1951",
      "relation": "GROUNDS_POLE_CRITERION",
      "target": "FQFT-INT-P01"
    },
    {
      "source": "EXT-BETHE-SALPETER-1951",
      "relation": "GROUNDS_POLE_CRITERION",
      "target": "FQFT-INT-P05"
    },
    {
      "source": "EXT-BETHE-SALPETER-1951",
      "relation": "GROUNDS_POLE_CRITERION",
      "target": "FQFT-INT-P09"
    },
    {
      "source": "EXT-EICHMANN-ETAL-2024",
      "relation": "SUPPORTS_SCALAR_BOUND_STATE_PRECEDENT",
      "target": "FQFT-INT-G01"
    },
    {
      "source": "FQFT-INT-T01",
      "relation": "PARAMETERIZES_BARE_CHANNEL",
      "target": "FQFT-INT-P01"
    },
    {
      "source": "FQFT-INT-T01",
      "relation": "PARAMETERIZES_BARE_CHANNEL",
      "target": "FQFT-INT-P05"
    },
    {
      "source": "FQFT-INT-T01",
      "relation": "PARAMETERIZES_BARE_CHANNEL",
      "target": "FQFT-INT-P09"
    },
    {
      "source": "FQFT-INT-P01",
      "relation": "REQUIRES_SOURCE_DYNAMICS",
      "target": "FQFT-INT-G01"
    },
    {
      "source": "FQFT-INT-P05",
      "relation": "REQUIRES_SOURCE_DYNAMICS",
      "target": "FQFT-INT-G01"
    },
    {
      "source": "FQFT-INT-P09",
      "relation": "REQUIRES_SOURCE_DYNAMICS",
      "target": "FQFT-INT-G01"
    },
    {
      "source": "FQFT-INT-G01",
      "relation": "PRECEDES",
      "target": "FQFT-REP-G02"
    },
    {
      "source": "FQFT-INT-NG01",
      "relation": "REFINED_BY",
      "target": "FQFT-INT-NG02"
    },
    {
      "source": "FQFT-INT-NG02",
      "relation": "EXPOSES",
      "target": "FQFT-INT-NG03"
    },
    {
      "source": "FQFT-INT-NG02",
      "relation": "EXPOSES",
      "target": "FQFT-INT-NG04"
    },
    {
      "source": "FQFT-INT-D01",
      "relation": "HAS_COMPARATOR_FLOW",
      "target": "FQFT-INT-T05"
    },
    {
      "source": "FQFT-INT-T05",
      "relation": "HAS_FIXED_POINT",
      "target": "FQFT-INT-FP00"
    },
    {
      "source": "FQFT-INT-T05",
      "relation": "HAS_FIXED_POINT",
      "target": "FQFT-INT-FP05"
    },
    {
      "source": "FQFT-INT-T05",
      "relation": "HAS_FIXED_POINT",
      "target": "FQFT-INT-FP06"
    },
    {
      "source": "FQFT-INT-FP06",
      "relation": "HAS_ONE_LOOP_PROPERTY",
      "target": "FQFT-INT-T06"
    },
    {
      "source": "FQFT-INT-FP05",
      "relation": "CONSTRAINS",
      "target": "FQFT-INT-NG05"
    },
    {
      "source": "FQFT-INT-FP06",
      "relation": "CONSTRAINS",
      "target": "FQFT-INT-NG05"
    },
    {
      "source": "FQFT-INT-NG03",
      "relation": "REQUIRES",
      "target": "FQFT-INT-G02"
    },
    {
      "source": "FQFT-INT-NG04",
      "relation": "REQUIRES",
      "target": "FQFT-INT-G02"
    },
    {
      "source": "FQFT-INT-T06",
      "relation": "REQUIRES",
      "target": "FQFT-INT-G02"
    },
    {
      "source": "FQFT-INT-NG05",
      "relation": "PRECEDES",
      "target": "FQFT-INT-G02"
    },
    {
      "source": "FQFT-INT-G02",
      "relation": "PRECEDES",
      "target": "FQFT-INT-P01"
    },
    {
      "source": "FQFT-INT-G02",
      "relation": "PRECEDES",
      "target": "FQFT-INT-P05"
    },
    {
      "source": "FQFT-INT-G02",
      "relation": "PRECEDES",
      "target": "FQFT-INT-P09"
    },
    {
      "source": "EXT-S6-TWOLOOP",
      "relation": "GROUNDS",
      "target": "FQFT-INT-T07"
    },
    {
      "source": "FQFT-INT-T05",
      "relation": "IDENTIFIED_WITH_EXTERNAL_MODEL_BY",
      "target": "FQFT-INT-T07"
    },
    {
      "source": "FQFT-INT-T07",
      "relation": "TRANSLATES",
      "target": "FQFT-INT-T08"
    },
    {
      "source": "FQFT-INT-T08",
      "relation": "SUPERSEDES_REAL_INTERPRETATION_OF",
      "target": "FQFT-INT-FP06"
    },
    {
      "source": "FQFT-INT-T08",
      "relation": "IMPLIES",
      "target": "FQFT-INT-NG06"
    },
    {
      "source": "FQFT-INT-NG06",
      "relation": "REFINES",
      "target": "FQFT-INT-T09"
    },
    {
      "source": "FQFT-INT-NG03",
      "relation": "REFINED_BY",
      "target": "FQFT-INT-NG07"
    },
    {
      "source": "EXT-S6-TWOLOOP",
      "relation": "CLARIFIES_PARITY_ROLE",
      "target": "FQFT-INT-NG07"
    },
    {
      "source": "FQFT-INT-NG07",
      "relation": "IMPLIES_COMPARATOR_LIMIT",
      "target": "FQFT-INT-NG08"
    },
    {
      "source": "FQFT-INT-NG06",
      "relation": "IMPLIES",
      "target": "FQFT-INT-NG09"
    },
    {
      "source": "FQFT-INT-NG08",
      "relation": "CONSTRAINS",
      "target": "FQFT-INT-G03"
    },
    {
      "source": "FQFT-INT-NG09",
      "relation": "CONSTRAINS",
      "target": "FQFT-INT-G03"
    },
    {
      "source": "FQFT-INT-NG04",
      "relation": "CONSTRAINS",
      "target": "FQFT-INT-G03"
    },
    {
      "source": "FQFT-INT-G03",
      "relation": "PRECEDES",
      "target": "FQFT-INT-P01"
    },
    {
      "source": "FQFT-INT-G03",
      "relation": "PRECEDES",
      "target": "FQFT-INT-P05"
    },
    {
      "source": "FQFT-INT-G03",
      "relation": "PRECEDES",
      "target": "FQFT-INT-P09"
    },
    {
      "source": "FQFT-D00",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-ACRG-D01"
    },
    {
      "source": "FQFT-DIM-01",
      "relation": "CONSTRAINS",
      "target": "FQFT-ACRG-D01"
    },
    {
      "source": "EXT-FRACTAL-QFT-2012",
      "relation": "GROUNDS_COMPARATOR",
      "target": "FQFT-ACRG-D01"
    },
    {
      "source": "FQFT-ACRG-D01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-ACRG-T01"
    },
    {
      "source": "EXT-LR-MULTISCALAR-2020",
      "relation": "GROUNDS_COMPARATOR",
      "target": "FQFT-ACRG-T01"
    },
    {
      "source": "FQFT-ACRG-T01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-ACRG-T02"
    },
    {
      "source": "FQFT-ACRG-T01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-ACRG-T03"
    },
    {
      "source": "FQFT-DIM-02",
      "relation": "SUPPORTS_NO_GO",
      "target": "FQFT-ACRG-NG02"
    },
    {
      "source": "FQFT-ACRG-NG02",
      "relation": "REQUIRES_REPAIR",
      "target": "FQFT-ACRG-D01"
    },
    {
      "source": "FQFT-ACRG-NG01",
      "relation": "REQUIRES_REPAIR",
      "target": "FQFT-ACRG-G01"
    },
    {
      "source": "FQFT-ACRG-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-ACRG-T03"
    },
    {
      "source": "FQFT-INT-NG07",
      "relation": "STRENGTHENED_BY",
      "target": "FQFT-ACRG-T02"
    },
    {
      "source": "FQFT-INT-G03",
      "relation": "REFINED_TO",
      "target": "FQFT-NP-G01"
    },
    {
      "source": "EXT-FRG-WETTERICH-1993",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-NP-D01"
    },
    {
      "source": "FQFT-ACRG-D01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-NP-D01"
    },
    {
      "source": "FQFT-ACRG-G01",
      "relation": "CONSTRAINS",
      "target": "FQFT-NP-D01"
    },
    {
      "source": "EXT-FRACTAL-COMPLEX-2009",
      "relation": "SUPPORTS_CONDITIONAL_TARGET",
      "target": "FQFT-NP-C01"
    },
    {
      "source": "FQFT-NP-D01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-NP-C01"
    },
    {
      "source": "FQFT-NP-D01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-NP-G01"
    },
    {
      "source": "FQFT-ACRG-T03",
      "relation": "CONSTRAINS",
      "target": "FQFT-NP-G01"
    },
    {
      "source": "FQFT-INT-NG09",
      "relation": "MOTIVATES",
      "target": "FQFT-NP-G01"
    },
    {
      "source": "FQFT-NP-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-INT-P01"
    },
    {
      "source": "FQFT-NP-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-INT-P05"
    },
    {
      "source": "FQFT-NP-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-INT-P09"
    },
    {
      "source": "FQFT-D00",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-AN-D01"
    },
    {
      "source": "FQFT-ACRG-NG02",
      "relation": "MOTIVATES",
      "target": "FQFT-AN-D01"
    },
    {
      "source": "EXT-POST-SIMMER-2018",
      "relation": "GROUNDS_COMPARATOR",
      "target": "FQFT-AN-T01"
    },
    {
      "source": "EXT-HAMBLY-KUMAGAI-1999",
      "relation": "GROUNDS_COMPARATOR",
      "target": "FQFT-AN-T01"
    },
    {
      "source": "FQFT-AN-D01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-AN-T01"
    },
    {
      "source": "FQFT-AN-T01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-AN-T02"
    },
    {
      "source": "FQFT-AN-T01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-AN-T03"
    },
    {
      "source": "FQFT-AN-NG02",
      "relation": "REQUIRES_REPAIR",
      "target": "FQFT-AN-T02"
    },
    {
      "source": "FQFT-ACRG-NG01",
      "relation": "REFINED_TO",
      "target": "FQFT-AN-NG02"
    },
    {
      "source": "FQFT-AN-T02",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-ACRG-G01"
    },
    {
      "source": "FQFT-AN-T03",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-ACRG-G01"
    },
    {
      "source": "FQFT-AN-NG01",
      "relation": "REQUIRES_REPAIR",
      "target": "FQFT-AN-G01"
    },
    {
      "source": "FQFT-AN-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-AN-D01"
    },
    {
      "source": "FQFT-AN-P01",
      "relation": "SUPPORTS_COMPARATOR",
      "target": "FQFT-AN-T03"
    },
    {
      "source": "FQFT-AN-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-NP-G01"
    },
    {
      "source": "FQFT-AN-NG01",
      "relation": "SHARPENED_BY",
      "target": "FQFT-MIC-NG01"
    },
    {
      "source": "FQFT-MIC-NG01",
      "relation": "REQUIRES_REPAIR",
      "target": "FQFT-MIC-D01"
    },
    {
      "source": "EXT-RAMANUJAN",
      "relation": "SUPPORTS_BASELINE",
      "target": "FQFT-MIC-T01"
    },
    {
      "source": "FQFT-MIC-D01",
      "relation": "TESTED_BY",
      "target": "FQFT-MIC-T01"
    },
    {
      "source": "FQFT-MIC-T01",
      "relation": "MOTIVATES_CANDIDATE",
      "target": "FQFT-MIC-D02"
    },
    {
      "source": "FQFT-MIC-D02",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-T02"
    },
    {
      "source": "FQFT-MIC-T02",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-T03"
    },
    {
      "source": "FQFT-MIC-T02",
      "relation": "LIMITED_BY",
      "target": "FQFT-MIC-NG02"
    },
    {
      "source": "FQFT-MIC-T01",
      "relation": "MOTIVATES_CANDIDATE",
      "target": "FQFT-MIC-D03"
    },
    {
      "source": "FQFT-MIC-D03",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-G02"
    },
    {
      "source": "FQFT-MIC-T03",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-G03"
    },
    {
      "source": "FQFT-MIC-D01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-G01"
    },
    {
      "source": "FQFT-MIC-G01",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-AN-D01"
    },
    {
      "source": "FQFT-MIC-G01",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-REV01"
    },
    {
      "source": "FQFT-MIC-D03",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-REV01"
    },
    {
      "source": "FQFT-MIC-D02",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-REV01"
    },
    {
      "source": "FQFT-MIC-D03",
      "relation": "REFINED_BY",
      "target": "FQFT-MIC-D04"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-T04"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-T05"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-T06"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "ADMITS_PROFILE",
      "target": "FQFT-MIC-C04"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "ADMITS_PROFILE",
      "target": "FQFT-MIC-C05"
    },
    {
      "source": "FQFT-MIC-C04",
      "relation": "INSTANTIATES",
      "target": "FQFT-MIC-T05"
    },
    {
      "source": "FQFT-MIC-C05",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-T07"
    },
    {
      "source": "FQFT-MIC-C05",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-NG04"
    },
    {
      "source": "FQFT-MIC-T05",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-NG03"
    },
    {
      "source": "FQFT-MIC-T04",
      "relation": "SUPPORTS",
      "target": "FQFT-AN-D01"
    },
    {
      "source": "FQFT-MIC-T04",
      "relation": "SUPPORTS",
      "target": "FQFT-AN-T01"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-G04"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "ENABLES_OR_PRECEDES",
      "target": "FQFT-MIC-G05"
    },
    {
      "source": "FQFT-MIC-NG03",
      "relation": "REQUIRES",
      "target": "FQFT-MIC-G05"
    },
    {
      "source": "FQFT-MIC-G04",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-REV02"
    },
    {
      "source": "FQFT-MIC-G05",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-REV02"
    },
    {
      "source": "FQFT-MIC-D04",
      "relation": "GOVERNED_BY",
      "target": "FQFT-MIC-REV02"
    }
  ],
  "firewalls": [
    "proof != physical truth",
    "correspondence != novelty",
    "detectability != nonabsorbability",
    "internal certified result != external validation",
    "formal systems theorem != physical law",
    "source-reported fixed point != independently reconstructed fixed point",
    "retired mechanism != refuted entire FQFT programme",
    "mathematical fixed-point pushforward != physical reduction map",
    "parallel representations of one algebra != bounded direct Hilbert-space transfer",
    "1+5+9 representation sectors != three physical generations",
    "functorial symmetric-square carrier != physical bilocal-sector selection"
  ]
}
