DOI:
John Stephen Swygert
November 19, 2025
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Abstract
The Swygert Theory of Everything AO (TSTOEAO) proposes that all physical reality emerges from an attributeless, pre‑geometric substrate which encodes a single governing principle: equilibrium. The theory’s central relation:
V = E × Y
and the derived Swygert Equilibrium Quotient (SEQ):
SEQ = (Y × E) / V
predict that all persistent systems operate within narrow equilibrium windows, and that collapse occurs when a system falls into dissipative SEQ bands.
In late 2025, multiple independent laboratories published results confirming (1) the ontic reality of the wave function, (2) new out‑of‑equilibrium phases of matter, (3) bulk quantum oscillations in materials previously assumed to be insulators, and (4) non‑local entanglement behavior consistent with instantaneous constraint enforcement.
This manuscript presents a formal correlation between these observations and the predictions of TSTOEAO. While the theory does not rely on these findings for its formulation, the alignment suggests that the substrate model provides a unified explanatory frame for known quantum phenomena.
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1. Introduction
For over a century, quantum mechanics has reliably predicted experimental outcomes while leaving unresolved questions about the ontological status of the wave function, the mechanism of measurement, and the source of non‑local quantum correlations.
TSTOEAO introduces a foundational layer beneath quantum theory: a substrate defined as pure nothingness with attributes, where no energy, mass, spacetime, or geometry exists — yet the constraints that govern all emergent phenomena are encoded.
This manuscript examines whether the newly reported 2025 results correlate with the structural requirements of TSTOEAO.
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2. Core Framework of TSTOEAO
2.1 Substrate Definition
The substrate is defined as:
> Pure nothingness with attributes — containing no matter, energy, or spacetime, but encoding equilibrium as a governing constraint.
The substrate is not:
a physical field,
a quantum vacuum,
hidden variables,
or a background medium.
It is a pre‑physical rule environment from which all observable behavior emerges.
2.2 Governing Relation
V = E × Y
Where:
E = opportunity (energy, potential, available degrees of freedom)
Y = substrate equilibrium constant (dimensionless)
V = realized value (the actual manifest outcome)
2.3 Swygert Equilibrium Quotient (SEQ)
SEQ = (Y × E) / V
SEQ indicates stability bands:
0.65–0.80 → persistent, adaptive, life‑compatible systems
0.20–0.30 → dissipative, collapse regimes
1.0 → complete stasis (no change, no evolution)
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3. 2025 Experimental Results
We focus on four experimentally confirmed results published in late 2025:
3.1 PBR Test on IBM Quantum Hardware (Cambridge, 2025)
Demonstrated that the wave function is ontically real (not epistemic), resolving a century‑long debate.
3.2 University of Michigan & National MagLab
Observed quantum oscillations deep in the bulk of an insulator — implying simultaneous conductive and insulating behavior.
3.3 Google Quantum AI: Floquet Topological Phases
Identified new phases of matter emerging only when systems are driven out of equilibrium.
3.4 TU Munich & Google: Entanglement Behavior
Confirmed non‑local correlations not limited by classical causal propagation.
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4. Correlation With TSTOEAO
4.1 Ontic Wave Function ↔ Ontic Substrate
TSTOEAO predicts that the foundational layer of reality is an ontic rule structure. If the wave function is real, this is consistent with the substrate acting as a pre‑geometric generator of quantum behavior.
4.2 Bulk Duality ↔ Equilibrium Superposition
The substrate permits contradictory potential states simultaneously until equilibrium enforcement resolves them. Bulk oscillations in insulators match this rule.
4.3 Floquet Phases ↔ Required Slight Disequilibrium
TSTOEAO predicts that persistent systems exist in a narrow imbalance band around Y. Google’s results demonstrate new order emerging only when driven out of equilibrium — a direct match.
4.4 Entanglement ↔ Global Equilibrium Constraint
The substrate encodes equilibrium globally and instantaneously. Non‑local entanglement behavior is consistent with instantaneous constraint enforcement, not limited by relativistic locality.
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5. Discussion
These correlations do not constitute a complete proof, but they:
align independently with TSTOEAO predictions,
conflict with no component of the theory,
and unify disparate quantum findings under a single equilibrium‑based explanatory model.
This positions TSTOEAO as a viable candidate framework for deeper quantum foundations.
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6. Conclusion
The 2025 quantum results — including wave function realism, out‑of‑equilibrium phases, bulk oscillations, and non‑local entanglement — exhibit patterns consistent with a deeper equilibrium‑based substrate.
TSTOEAO provides a coherent structure accommodating these findings, suggesting a unified explanatory model beneath quantum mechanics.
The observed convergence of foundational quantum results with the equilibrium‑first substrate model suggests that TSTOEAO may represent the final required layer beneath quantum mechanics itself.
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References
1. Cambridge University / IBM Quantum (2025). PBR Test Implementation and Wave Function Reality.
2. University of Michigan & National MagLab (2025). Bulk Quantum Oscillation Measurements in Insulating Materials.
3. Google Quantum AI (2025). Floquet Topological Phases and Out‑of‑Equilibrium Matter States.
4. Technical University of Munich & Google (2025). Non‑Local Entanglement Constraint Experiments.
5. McCoy, J. (2025). Quantum Reality and the Nature of Observation. FirstMovers.ai. (Transcript referenced via public YouTube release.)