IndisputableMonolith.Relativity.Geometry.DiscreteBridge
Module formalizing the discrete-to-continuum bridge in RS relativity: lattice spacing on a finite box, flat and weak-field chains, and a Regge-style convergence hypothesis linking the phi-ladder lattice to continuum metric geometry. Relativists and RS auditors cite it when connecting discrete recognition ticks to Levi-Civita curvature. Structure is definitions plus certificates and an end-to-end chain, not a single theorem.
claimOn a box of side $L$ with $N$ sites, lattice spacing is $a = L/N$ (positive, $a \to 0$ as $N \to \infty$). The module packages a flat-chain identity, a weak-field bridge with coupling from $\phi$, invertibility of the metric matrix, a Regge convergence hypothesis, and a discrete-continuum bridge certificate assembling an end-to-end chain from the lattice to continuum geometry.
background
Recognition Science forces continuum spacetime from a discrete recognition lattice (eight-tick octave, $D=3$ from the T0–T8 chain). Continuum geometry in this stack already has metrics, Christoffel symbols, the unique torsion-free metric-compatible connection (Levi-Civita), and Riemann symmetries. Metric unification identifies the RS-derived Minkowski $\eta$ with the stack's minkowski_tensor.
This module sits at the interface: it defines lattice spacing for $N$ sites in a box of side $L$, records positivity and the continuum limit $a \to 0$, and states the structural bridges (flat chain, weak-field bridge, coupling extracted from $\phi$) needed to pass from discrete curvature (Regge-like) to the continuum curvature already formalized upstream. Constants supply the RS time quantum $\tau_0$.
proof idea
Definition-and-certificate module rather than a single deep proof. Lattice spacing is introduced as $L/N$ with elementary positivity and limit lemmas. Flat and weak-field bridges are packaged as named structures or props; coupling is read off from $\phi$. Metric-matrix invertibility is a local nondegeneracy fact. Regge convergence is stated as a hypothesis interface. The discrete-continuum bridge and bridge certificate assemble these pieces; EndToEndChain wires the path from lattice data through the weak-field/flat layers into the continuum geometry stack.
why it matters in Recognition Science
Feeds the Geometry aggregator, which re-exports all geometry components for the relativity stack. Without a discrete-continuum bridge, RS remains stuck at the lattice while curvature, Levi-Civita uniqueness, and metric unification live in the continuum. The module is the natural home for closing Regge-style convergence and for citing the weak-field and flat chains when matching continuum GR limits to the phi-ladder and eight-tick discrete skeleton. Landmarks in play: T7 (eight-tick), T8 ($D=3$), and the RS-derived $\eta$ already unified upstream.
scope and limits
- Does not prove full Regge convergence to continuum Einstein equations; that remains a named hypothesis.
- Does not derive the continuum metric from scratch; relies on upstream Metric, Curvature, and Levi-Civita modules.
- Does not treat matter sources or full nonlinear strong-field matching beyond the weak-field bridge.
- Does not fix a unique physical box size $L$; spacing is parametric in $N$ and $L$.
- Does not re-prove metric unification or Riemann symmetries; those are imported.
used by (1)
depends on (8)
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IndisputableMonolith.Constants -
IndisputableMonolith.Relativity.Calculus.Derivatives -
IndisputableMonolith.Relativity.Geometry.Curvature -
IndisputableMonolith.Relativity.Geometry.LeviCivitaTheorem -
IndisputableMonolith.Relativity.Geometry.Metric -
IndisputableMonolith.Relativity.Geometry.MetricUnification -
IndisputableMonolith.Relativity.Geometry.RiemannSymmetries -
IndisputableMonolith.Relativity.Geometry.Tensor
declarations in this module (13)
-
def
latticeSpacing -
theorem
latticeSpacing_pos -
theorem
latticeSpacing_tendsto_zero -
structure
FlatChain -
theorem
flat_chain_holds -
structure
WeakFieldBridge -
theorem
coupling_from_phi -
def
metric_matrix_invertible_at -
def
ReggeConvergenceHypothesis -
structure
DiscreteContinuumBridge -
theorem
bridge_certificate -
structure
EndToEndChain -
theorem
end_to_end