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Quantum Computers as Stress Tests of Hilbert-Space Realism: Rational Quantum Mechanics, Finite Projection Bandwidth, and the TCGS-SEQUENTION Interpretation of Quantum Computation

Henry Arellano-Peña

Published Jan 1, 2026• 0 citations
Publisher
DOI
10.13140/rg.2.2.13231.50083

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The TCGS-SEQUENTION framework posits that observable 3D reality is a projection of a deterministic, non-linear 4D counterspace. A companion paper demonstrated that source-level nonlinearity is compatible with shadow-level no-signaling through the quotient map structure. This paper addresses the deeper challenge: why does a deterministic source generate probabilistic outcomes at the shadow level, and specifically, why the Born rule P=∣ψ∣2P = |\psi|^2P=∣ψ∣2? We show that the Born measure is the \emph{unique} probability assignment on the shadow state space $\Sspace$ that satisfies three geometric requirements: (i) fiber-independence (well-definedness on equivalence classes), (ii) foliation-invariance (independence of parameterization choices), and (iii) non-contextuality (Gleason's constraint). The projection geometry does not merely \emph{permit} the Born rule---it \emph{forces} it as the only consistent bridge between deterministic source dynamics and operational shadow statistics. Probability in TCGS is neither ontic randomness nor subjective ignorance, but a \emph{projection invariant}: the unique measure that renders the quotient map mathematically coherent.