The Two Mysteries of Quantum Entanglement Dissolved: A 1905—2022 Reframing Locality, Realism, and the Origin of Spin Pairing

The 2022 Nobel Prize in Physics consolidated the public narrative that quantum entanglement experiments demonstrate the nonlocality of nature. We argue this conclusion rests on an implicit premise—the ontological separability of spatially separated energy packets—that is not among Bell's explicitly stated assumptions. The present paper dissolves that premise as a direct consequence of the Sincere Science ontology rather than as an additional interpretive postulate.

Evolution of the Argument

• v1.0: The argument combined two results Einstein published in 1905—the discrete-energy photoelectric effect and special relativistic proper time, which is zero along null worldlines—invoking Minkowski geometry as input.

• v2.0: Grounded the same argument in the internal ontology developed in the Structure of the Present synthesis and in the revised Discrete Time framework.

• v2.1: The photon was explicitly identified with the Bohr quantum leap (Bohr 1913, Nobel 1922). Emission and absorption are the two terminations of a single quantum leap, with no intermediate state and no intermediate position. Minkowski geometry is preserved as a correct description of what massive observers record; the internal ontology, anchored in Bohr 1913, now explains why that description works.

The Mechanics of Entanglement

Under this reading, entanglement correlations are the resolution of a single distributed causal structure manifesting as two detector clicks in the observer's massive reference frame. No signal traverses the spatial gap because, in the photons' own frame, there is no gap to traverse. The spatial separation between detectors is a structure in the Gpast of the massive observer, not an obstacle in the photon's frame.

The Bell correlation follows from conservation acting as a global vinculum on a single event's internal consistency—agency resolves freely at each inflection, bound by the coherence of the event whose terminations the inflections are. Locality is preserved, realism is preserved, and superdeterminism is not required.

The Cosmic Bell Test

The Cosmic Bell Test is revisited. The choice of measurement angle, sourced from a quasar photon, is not localized billions of years in the past. In the quasar photon's own frame, no time has elapsed between quasar emission and detector absorption—the "billions of years" are an integration of records in the terrestrial observer's Gpast. The choice is localized at the termination of the photon's single imperfect present, in the laboratory's local present tick.

Present Revision (v2.2): The Two Mysteries

In v2.2, the scope of the paper is sharpened to register two complementary layers of the entanglement question:

1. The first mystery (Correlation without signaling): Dissolved by the v2.0–v2.1 ontology already established in §4.1–§4.4. The two clicks are two terminations of one event, and the correlation is a conservation constraint acting as a global vinculum on a single event's internal consistency.

2. The second mystery (Opposite spin upon separation): Dissolved by the lock mechanism formalized in the companion paper, Hadronic Mass Generation through 3D Magnetic Locking (Paper A, Guzzon et al. 2026, DOI: 10.5281/zenodo.19827953). The spin pairing is the internal structural feature of the pre-separation locked state, and the post-separation packets carry that pairing as the persistence of pre-break structure.

Pair separation is structurally the inverse of the operation formalized in Paper A's $e \to m$ chamber, applied at the relevant scale of the fractal hierarchy. The same ontology, applied at two moments of the process, dissolves both mysteries with no additional input.

Open Technical Points

We make explicit both the structural strength of the argument and the single technical point—derivation of the $\cos^2(\theta)$ correlation form from Sincere Science first principles—that remains open. It is sketched here as a working hypothesis via a reinterpretation of the Bloch sphere as a map of resolution possibilities rather than a physical state. The audit of v2.0 recommended against premature closure of this point; we comply.