IndisputableMonolith.Foundation.SimplicialLedger.EdgeLengthFromPsi
This module defines the log-potential assignment ε : Fin n → ℝ with ε_i = ln ψ(σ_i) on a simplicial 3-complex together with the derived conformal edge length field. It supplies the exact object referenced by laplacian_action in the ContinuumBridge. Researchers proving the discrete-to-continuum passage in Recognition Science cite it as the source of the potential used for Regge action identification. The module contains only definitions and no proofs.
claimThe module introduces the log-potential assignment $ε : Fin n → ℝ$ given by $ε_i = ln ψ(σ_i)$ and the conformal edge length field $ℓ_{ij} = ℓ_0 exp((ε_i + ε_j)/2)$ together with the associated hinge datum and deficit angle functional.
background
The module belongs to the SimplicialLedger hierarchy that replaces the fixed cubic lattice with a coordinate-free 3-complex sheaf. It imports Constants (τ₀ = 1 tick), Cost (J-functional), the parent SimplicialLedger (sheaf representation unifying local and global J-cost), and ContinuumBridge (J-cost stationarity to discrete Ricci). The central object is the log-potential ε drawn directly from the laplacian_action construction that converts J-cost variations into curvature terms.
proof idea
This is a definition module, no proofs.
why it matters in Recognition Science
The definitions supply the log-potential and edge-length constructions required by ContinuumTheorem (Phase D of the field-curvature identity program) and by CubicDeficitDischarge (Phase A). They are also imported by CubicSimplicialEquivalence, NonlinearBridge, SimplicialDeficitDischarge, and WeakFieldConformalRegge, which together address Beltracchi §5–6 concerns on simplicial equivalence and the nonlinear regime. The module thereby prepares the identification of the J-cost functional with the Regge action S = (1/κ) Σ A_h δ_h under the conformal ansatz.
scope and limits
- Does not contain any theorems or proofs.
- Does not discharge ReggeDeficitLinearizationHypothesis.
- Does not treat the nonlinear J-cost regime.
- Does not fix the normalization constant κ.
- Does not invoke the eight-tick octave or D = 3 forcing chain.
used by (6)
-
IndisputableMonolith.Foundation.SimplicialLedger.ContinuumTheorem -
IndisputableMonolith.Foundation.SimplicialLedger.CubicDeficitDischarge -
IndisputableMonolith.Foundation.SimplicialLedger.CubicSimplicialEquivalence -
IndisputableMonolith.Foundation.SimplicialLedger.NonlinearBridge -
IndisputableMonolith.Foundation.SimplicialLedger.SimplicialDeficitDischarge -
IndisputableMonolith.Gravity.WeakFieldConformalRegge
depends on (4)
declarations in this module (18)
-
theorem
is -
abbrev
LogPotential -
structure
EdgeLengthField -
def
conformal_edge_length_field -
theorem
conformal_edge_length_flat -
structure
HingeDatum -
structure
DeficitAngleFunctional -
def
regge_sum -
def
ReggeDeficitLinearizationHypothesis -
theorem
field_curvature_identity_under_linearization -
theorem
laplacian_action_flat -
theorem
regge_sum_flat_under_linearization -
def
logPotentialOf -
theorem
logPotentialOf_flat -
theorem
jcost_to_regge_factor_eq_kappa_einstein -
theorem
kappa_calibration_positive -
structure
EdgeLengthFromPsiCert -
theorem
edgeLengthFromPsiCert