IndisputableMonolith.Gravity.SevenGaps.WickThreeTwoHinges
Supplies complex-first Wick edge tuples, hinge matrices, and minors for the (3,2) causal 4-simplex at unit spacelike length and timelike arc value z. Complements the (4,1) all-hinges package so both causal types can be conjoined. Downstream completeness over all twenty hinges cites this data. Mostly definitional edge/matrix construction parallel to the (4,1) lane.
claimComplex edge data, Cayley-Menger-style hinge matrices, and principal minors for the $(3,2)$ causal $4$-simplex under complex-first Wick continuation, at unit spacelike edge length and timelike parameter $z$ on the upper-half-plane arc $z=\mathrm{zArc}(t)$.
background
The QG Seven-Gaps campaign formalizes 4D Lorentzian Wick continuation of Regge hinge data in a complex-first style. Causal 4-simplices split into two types, $(4,1)$ and $(3,2)$. Edge lengths live in $\mathbb{C}$, continue along a canonical upper-half-plane arc, and hinge regularity is read from determinants of Cayley-Menger-type matrices built from those edges.
Upstream, WickActionComplexFirst builds the complex-first 4D framework (lane C11) and certifies split-form branch regularity plus boundary continuation for a single traced hinge. WickFourOneAllHinges extends those certificates to all ten triangular hinges of the $(4,1)$ type at the physical point $a=1$, $\alpha=1$.
This module is the $(3,2)$ data counterpart: the complex edge tuple at unit spacelike value and timelike $z$ (continuation of the threeTwo pattern at those parameters), together with the associated hinge matrix, submatrices, and lower minors used in the same determinant tests.
proof idea
Definition-and-construction module, not a single theorem. It introduces the $(3,2)$ complex edge tuple at the physical point, the hinge matrix assembled from those edges, named submatrices (principal blocks and complementary blocks), and the corresponding minors and their determinants. The pattern mirrors the $(4,1)$ all-hinges package: fix $a=1$, continue timelike edges on the arc, then expose the matrix algebra needed for branch-regularity and boundary-continuation certificates on the $(3,2)$ side.
why it matters in Recognition Science
Lane B of the finishing charter needs both causal types before completeness. Downstream WickHingeDataComplete (lane B3) is the conjunction of per-type certificates into one statement over both causal 4-simplex types and all twenty hinges. Without the $(3,2)$ edge/matrix/minor package, that conjunction has nothing to conjoin on the threeTwo side.
Together with the $(4,1)$ all-hinges module and the complex-first base, this closes the hinge-data half of the Wick program for Regge calculus in the Seven-Gaps campaign. It does not itself state the global completeness theorem; it supplies the missing type so that theorem can be stated honestly.
scope and limits
- Does not treat $(4,1)$ hinges; those live in the sibling all-hinges module.
- Does not state the two-type completeness conjunction; that is the downstream complete module.
- Does not reconstruct full continuum GR or Einstein equations from hinge data alone.
- Does not claim numeric gate receipts; those sit in the campaign RESULTS artifacts.
- Does not extend off the physical point $a=1$ or off the canonical arc without further work.
used by (1)
depends on (2)
declarations in this module (99)
-
def
hingeEdges32C -
theorem
continuationEdgesC_physical32 -
def
hingeMatrix32C -
theorem
cmMatrixC_hingeEdges32 -
theorem
submatrix32_44 -
theorem
submatrix32_55 -
def
minor32LowerC -
theorem
submatrix32_11 -
theorem
submatrix32_22 -
theorem
submatrix32_33 -
theorem
det_minor32LowerC -
def
minor32_45C -
theorem
submatrix32_45 -
theorem
det_minor32_45C -
def
minor32_14C -
theorem
submatrix32_14 -
theorem
det_minor32_14C -
def
minor32_15C -
theorem
submatrix32_15 -
theorem
det_minor32_15C -
def
minor32_24C -
theorem
submatrix32_24 -
theorem
det_minor32_24C -
def
minor32_25C -
theorem
submatrix32_25 -
theorem
det_minor32_25C -
def
minor32_34C -
theorem
submatrix32_34 -
theorem
det_minor32_34C -
def
minor32_35C -
theorem
submatrix32_35 -
theorem
det_minor32_35C -
def
minor32_12C -
theorem
submatrix32_12 -
theorem
det_minor32_12C -
def
minor32_13C -
theorem
submatrix32_13 -
theorem
det_minor32_13C -
def
minor32_23C -
theorem
submatrix32_23 -
theorem
det_minor32_23C -
theorem
cof32_d1 -
theorem
cof32_d2 -
theorem
cof32_d3 -
theorem
cof32_d4 -
theorem
cof32_d5 -
theorem
cof32_45 -
theorem
cof32_14 -
theorem
cof32_15 -
theorem
cof32_24 -
theorem
cof32_25 -
theorem
cof32_34 -
theorem
cof32_35 -
theorem
cof32_12 -
theorem
cof32_13 -
theorem
cof32_23 -
theorem
denom32_ne -
def
threeTwoCosPath -
theorem
threeTwoCosPath_symm -
theorem
threeTwoCosPath_apply_symm -
theorem
boundary32_symm -
theorem
threeTwoCosPath_eq_spacelike -
theorem
branchRegular_threeTwo_spacelike -
theorem
boundary_threeTwo_spacelike -
theorem
threeTwoCosPath_eq_mixed -
theorem
branchRegular_threeTwo_mixed_pair -
theorem
boundary_threeTwo_mixed_pair -
theorem
threeTwoCosPath_eq_upper -
theorem
branchRegular_threeTwo_upper_pair -
theorem
boundary_threeTwo_upper_pair -
theorem
branchRegular32_pair03 -
theorem
branchRegular32_pair04 -
theorem
branchRegular32_pair13 -
theorem
branchRegular32_pair14 -
theorem
branchRegular32_pair23 -
theorem
branchRegular32_pair24 -
theorem
branchRegular32_pair01 -
theorem
branchRegular32_pair02 -
theorem
branchRegular32_pair12 -
theorem
boundary32_pair03