IndisputableMonolith.Foundation.SimplicialLedger.ContinuumBridge
The ContinuumBridge module supplies the logarithmic translation of J-cost for connecting simplicial 3-complex ledgers to continuum curvature expressions in Recognition Science. Researchers formalizing the field-curvature identity cite it when passing between discrete edge lengths and field equations. It consists of targeted definitions that convert the multiplicative J form into the additive cosh expression without a central theorem.
claimThe recognition cost in logarithmic coordinates satisfies $J(e^{\epsilon}) = \cosh(\epsilon) - 1$.
background
This module belongs to the Foundation.SimplicialLedger hierarchy and imports Constants (where $\tau_0 = 1$ tick), Cost, and the base SimplicialLedger module. The latter formalizes the ledger as a simplicial 3-complex with a coordinate-free sheaf representation that unifies local and global J-cost variations.
The supplied DOC_COMMENT isolates the key translation: edge lengths are written in exponential form so that the original J functional becomes an additive function of $\epsilon$. This step aligns the discrete ledger with continuum limits while preserving the Recognition Composition Law.
Upstream results from Constants and Cost fix the native units and the base J definition used throughout the downstream phases.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The module supplies the logarithmic J-cost bridge required by ContinuumTheorem, which advances Phase D of the program to make the paper's Theorem 5.1 (field-curvature identity at $\kappa = \kappa_{Einstein}$) an unconditional Lean theorem. It is also imported by CubicDeficitDischarge (Phase A), CubicSimplicialEquivalence, NonlinearBridge, and InteriorFlat, each addressing a distinct Beltracchi concern on the Regge identification.
scope and limits
- Does not prove any continuum limit theorem.
- Does not discharge linearization hypotheses.
- Does not address interior flatness of simplices.
- Does not treat nonlinear Regge extensions.
- Does not supply the full field-curvature identity.
used by (8)
-
IndisputableMonolith.Foundation.SimplicialLedger.ContinuumTheorem -
IndisputableMonolith.Foundation.SimplicialLedger.CubicDeficitDischarge -
IndisputableMonolith.Foundation.SimplicialLedger.CubicSimplicialEquivalence -
IndisputableMonolith.Foundation.SimplicialLedger.EdgeLengthFromPsi -
IndisputableMonolith.Foundation.SimplicialLedger.InteriorFlat -
IndisputableMonolith.Foundation.SimplicialLedger.NonlinearBridge -
IndisputableMonolith.Foundation.SimplicialLedger.SimplicialDeficitDischarge -
IndisputableMonolith.Gravity.WeakFieldConformalRegge
depends on (3)
declarations in this module (26)
-
def
J_log -
def
J_log_quadratic -
def
J_log_error_bound -
def
coupling_cost -
def
coupling_quadratic -
structure
WeightedLedgerGraph -
def
laplacian_action -
def
discrete_laplacian -
theorem
stationarity_iff_laplacian_zero -
structure
as -
structure
HingeContribution -
def
regge_action_from_hinges -
def
jcost_to_regge_factor -
theorem
jcost_to_regge_factor_eq -
theorem
jcost_to_regge_factor_pos -
theorem
jcost_to_regge_factor_ne_zero -
def
induced_regge_action -
structure
FieldCurvatureBridge -
theorem
jcost_stationarity_implies_regge -
structure
JCostToEFE -
theorem
jcost_to_efe_chain -
theorem
flat_is_vacuum -
theorem
flat_zero_cost -
theorem
deficit_jcost_correspondence -
structure
ContinuumBridgeCert -
theorem
continuum_bridge_cert