IndisputableMonolith.Foundation.SimplicialLedger.SimplicialDeficitDischarge
The module defines calibration of a deficit functional against a ledger graph, requiring its Regge sum to match κ times the Laplacian action on the conformal ε-field. It supplies the explicit cubic-lattice construction as Phase A. General simplicial complexes use the linear_regge_vanishes result from Phase C4. Researchers deriving the Einstein equations from J-cost stationarity cite it to link discrete RS ledgers to continuum gravity. The module assembles geometry and ledger imports without independent proofs.
claimA deficit functional $F$ is calibrated against a ledger graph when its Regge sum satisfies $\sum \mathrm{Regge}(\sigma) = \kappa \cdot \Delta(\varepsilon)$ on the conformal field $\varepsilon$, where $\kappa=8\phi^5$.
background
This module belongs to the Foundation.SimplicialLedger hierarchy. It imports ContinuumBridge, whose doc states that the J-cost functional on the simplicial ledger is the Regge action (normalized by $\kappa=8\phi^5$) and that J-cost stationarity yields the Regge equations. It further imports CubicDeficitDischarge, which discharges ReggeDeficitLinearizationHypothesis unconditionally for the RS-canonical cubic lattice as Phase A of the four-phase program. EdgeLengthFromPsi supplies the identification of the recognition potential $\psi$ with the ten edge lengths per 4-simplex. Geometry modules provide Cayley-Menger determinants, Piran-Williams linearization, dihedral angles, and Schläfli relations.
The local theoretical setting is the program to promote the draft paper's Theorem 5.1 (field-curvature identity) from pattern-matching to a Lean theorem, with Phase A handling the cubic case and Phase C4 supplying the general simplicial calibration via linear_regge_vanishes.
proof idea
This is a definition module, no proofs. It declares the calibration predicate and related simplicial objects by importing and organizing results from the cubic lattice case (CubicDeficitDischarge), the continuum bridge, and the geometry primitives (Cayley-Menger, DeficitLinearization, DihedralAngle, Schlaefli).
why it matters in Recognition Science
This module supplies the simplicial calibration required for the field-curvature identity. It feeds the ContinuumBridge result that J-cost stationarity implies the Einstein field equations. The parent program is the discharge of ReggeDeficitLinearizationHypothesis across Phase A (cubic) and Phase C4 (general simplicial via linear_regge_vanishes). It touches the open question of extending the cubic calibration to arbitrary complexes while preserving the match to $\kappa \cdot$ laplacian_action.
scope and limits
- Does not discharge the linearization hypothesis for non-cubic simplicial complexes.
- Does not compute explicit numerical values for the calibration constant $\kappa$.
- Does not address time-dependent or dynamical ledger graphs.
- Does not include proofs of the Regge equations themselves.
depends on (8)
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IndisputableMonolith.Constants -
IndisputableMonolith.Foundation.SimplicialLedger.ContinuumBridge -
IndisputableMonolith.Foundation.SimplicialLedger.CubicDeficitDischarge -
IndisputableMonolith.Foundation.SimplicialLedger.EdgeLengthFromPsi -
IndisputableMonolith.Geometry.CayleyMenger -
IndisputableMonolith.Geometry.DeficitLinearization -
IndisputableMonolith.Geometry.DihedralAngle -
IndisputableMonolith.Geometry.Schlaefli
declarations in this module (8)
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def
CalibratedAgainstGraph -
theorem
calibrated_iff_hypothesis -
theorem
simplicial_linearization_discharge -
theorem
cubic_calibrated_against_graph -
theorem
field_curvature_identity_simplicial -
theorem
field_curvature_identity_simplicial_einstein -
structure
SimplicialFieldCurvatureCert -
theorem
simplicialFieldCurvatureCert