SigmaLayer/ForwardCapstone: the product-model forward capstone #
Category: 7-SigmaLayer (the projective-sector layer (Paper C)).
The first achievable SigmaLayer capstone, combining only currently proved components on the concrete
many-to-one product sector Sigma = CP^{N-1} x T^2, pi = Prod.fst, muL = muFS ⊗ vol, with the
exp(-itH) unitary flow on the base ray:
- deterministic measure-preserving ontic flow (
ConstraintDynamics.flow_preserves); - projectability through
pito the projected flowexp(-itH) • ·(ProjectiveDynamicsBridge); - a Hamiltonian (Schrödinger) realisation of the projected flow (theorem target T5, inhabited);
- the Fubini-Study measure bridge
pi_* muL = muFS(bridge B1, proved for this product model).
What this capstone does NOT claim #
It is named product_projectiveSector_forward_capstone, not finiteQM_complete. It does NOT claim: general
Born-from-flow; general unitary dynamics beyond this instance; general Lüders update; composite-system
results; no-signalling; Bell reconstruction; nor the contextual pointer readout and almost-everywhere
unique outcome (which need a concrete DeisolationModel instance from the LF5 pointer machinery, the
named Tranche 2b piece). The independent-trial Born-frequency theorem
LF4.manyToOneSetup_born_frequency applies to sampling this model's muL; the connection is
productDynamics_muL_eq.
Assumption report #
The capstone product_projectiveSector_forward_capstone has NO hypotheses beyond (H, hH, p₀) (a Hermitian
generator and a basepoint). Every conjunct is discharged by a proved theorem; there are no bridge
assumptions left open in the statement. #print axioms shows the foundational triple only.
The SigmaLayer product Liouville measure is the LF4 product measure muFS ⊗ vol, so the existing
independent-trial Born-frequency theorem LF4.manyToOneSetup_born_frequency (stated for
liouvilleMeasure) applies directly to sampling the SigmaLayer productDynamics.muL.
The product-model projective sector forward capstone. For the many-to-one product sector with the
exp(-itH) flow, the following hold with no open hypotheses:
- the ontic flow is measure-preserving;
- it projects through
pi = Prod.fsttoexp(-itH) • ·; - the projected flow has a Hamiltonian (Schrödinger) realisation (target T5);
pi_*(muFS ⊗ vol) = muFS(bridge B1).
This is the forward delivery of the projective dynamics and the measure bridge from the projective sector ontic sector for this concrete model, combining only proved components.