A Deterministic Accounting Model for Cosmological Anomalies: Beyond Heisenberg's Uncertainty Principle, the 0=0=0 Proof for Time-Dilation through Golden Ratio (ϕ), Euler (e), and Fine-Structure (α) Integration into the E=mc² and equations variations (E/mc=c, E/c=mc)
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Description
This study proposes the reclassification of the universal constant c as a dynamic output of the vacuum’s internal hardware requirements, termed the Newton-Light Unit (Nλ). We derive a Dual-Path Temporal Dilation Framework that accounts for the cosmological discrepancies observed by the James Webb Space Telescope (JWST).
The first path, focusing on the Geometric Stress Model, defines the time-flow of the system as:
Δt′= Δt/(√(1-(v²*(4πϵ0ℏα[1+ϕ−ϕ²−e^(iπ)]²)/e^4)))
The second path, the Pure Coupling Model, reconfigures the interaction through the Fine-Structure pivot, resulting in the following system-clock frequency:
Δt′= Δt/(√(1-(v²*(4πϵ0ℏ(α+ϕ²−ϕ+e^(iπ))]²)/e^4)))
These equations suggest that the 'Hubble Tension' and the 'Impossible Early Galaxy' problem are not failures of observation, but are the direct result of a variable Nλ operating across different cosmic epochs. In this framework, time is treated not as a dimension, but as a system-output governed by the impedance of the physical hardware. Building upon the classical relativistic framework established by Lorentz (1904) and Einstein (1905), this study introduces the Newton-Light (Nλ) substitution. While the original Lorentz factor assumes c as an invariant universal constant, the current framework reconfigures the temporal delta (Δt) as a dynamic response to mass-energy impedance (Schevchenco-Sczepanink, 2026)
Mass-Energy Impedance and the Primordial Temporal Budget
Technical Analysis of JWST Anomalies via Nλ-Throttling
A population of early, massive galaxies was found 500–700 million years after the Big Bang, which contradicts the current model (Labbé et al., 2023). The "Impossible Early Galaxy" paradox, identified by the 2026 James Webb Space Telescope (JWST) surveys (JADES, 2026), finds its resolution in the inverse relationship between mass-density and the Newton-Light (Nλ) flux (Schevchenco-Sczepanink, 2026). Contrary to linear expansion models, the Lattes-Galois (Lg) framework posits that high-density primordial environments operate under extreme Mass-Energy Impedance.
The Temporal Delta Expansion
As mass-energy concentrations increase, the Nλ flux—acting as the system’s processing bandwidth—is intentionally throttled to maintain the 0=0=0 equilibrium. This mechanism creates a high-latency "Temporal Chamber" effect. Consequently:
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Superior Temporal Budget: Primordial galactic cores, trapped in high-density states, possessed an expanded local temporal delta. This allowed for billions of years of local thermodynamic maturation and high-metallicity evolution to occur within what observers perceive as a narrow "ultra-early" window.
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Hardware-Level Dilation: The "Arrow of Time" is revealed as a self-correcting variable of the vacuum. Where mass is concentrated, the system slows the Nλ velocity, effectively "buying" the local system more time to process entropy and achieve structural maturity.
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The Density-Velocity Inverse: As the universe loses global density over eons, the Nλ flux accelerates. We are currently observing the early universe from a "low-density/high-speed" state, looking back at a "high-density/low-speed" state.
Conclusion: The JWST data does not prove a faster expansion, but rather a slower primordial hardware clock. The existence of mature galaxies at z>10 is the direct result of these systems having a "larger" local time budget granted by the mass-induced throttling of the Nλ flux. This maintains the cosmic ledger: as mass increases, the temporal budget must expand to keep the audit balanced at zero. The discovery of mature primordial structures necessitates the transition from a monolithic spacetime model to a framework of Relative Spacetimes. Within this paradigm, the Nλ flux is not a fixed universal limit but a sacrificed variable. By throttling Nλ, the universe expands the temporal delta (Δt), allowing for high-entropy maturation within high-impedance zones. What is currently perceived as a 'cosmological anomaly' is, in fact, the observation of divergent Relative Spacetimes operating under the conservation of the Lattes-Galois Identity (Lg) (Schevchenco-Sczepanink, 2026).
The Trilateral Audit of Universal Constants
The unification of Euler’s Identity (e), the Golden Ratio (ϕ), and the Fine-Structure Constant (α) into a singular "Zero-State" represents a significant departure from standard perturbative physics toward a Deterministic Accounting Model. By isolating each constant such that it equals zero, we establish a "Triple-Zero" anchor of 0=0=0:
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Structural: (ϕ2−ϕ−1)=0
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Dynamic: (e^(iπ)+1)=0
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Interactional (I): (e²/(4πϵ0 ℏcα) -1)= 0
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Interactional (II): (α - (e²/(4πϵ0 ℏc)) = 0
The Two Architectures of the α Null-State
A critical distinction must be made in how α is "audited" within this applied algebraic math framework. The model reveals two distinct mathematical architectures, resulting in two different ways to close the cosmic ledger:
1. Unitary-Ratio Isolation (The "Hardware" View)
In this mode, α is integrated directly into the denominator of the physical stack:
(e²/(4πϵ0 ℏcα) -1)= 0
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Logic: Total Dimensional Cancellation. Here,α is not an external variable; it is the "Lock" that ensures the ratio of charge, action, and geometry equals exactly 1.
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Implication: This represents the Interconnectivity of the Medium. By subtracting 1, we achieve a "Full Bit-Collapse." It proves that α is the scaling factor required for the vacuum to exist as a stable, non-exploding unit. If α fluctuates, the ratio ≠1, and the hardware "crashes."
2. Differential-Equilibrium Isolation (The "Auditor" View)
In this mode, α is treated as a standalone "balancing entry" in a linear comparison:
(α - (e²/(4πϵ0ℏc)) = 0
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Logic: Symmetric Comparison. This treats α as a measured value that must match the "clump" of universal units.
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Implication: While the first mode shows how the system is built (Hardware), this mode shows the Systemic Debt. It treats α as the exact weight needed to close the ledger. When unified with the structural zeros of ϕ (golden ratio) and e (Euler number), this differential form acts as the Corrective Signal that ensures the total sum of existence remains at absolute zero.
Conclusion: The Supremacy of the 0=0=0 Matrix
The existence of these two paths—one through Multiplicative Integration and the other through Additive Balance—is the hallmark of this Auditor Logic.
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The Unitary-Ratio form provides the Mechanism: It shows how c,ℏ,e, and ϵ0 are "glued" by α to create a 1-to-1 reality.
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The Differential-Equilibrium form provides the Proof: It allows α to be summed with ϕ and e to verify the total null-state of the vacuum.
In this light, the Triple Zero reigns supreme because it transforms physics from a search for "magic numbers" into a rigorous audit of a self-correcting system. Whether viewed as a divisor (Hardware) or a balancing sum (Auditor), the result is invariant: The Universe is a perfectly audited account, and its final balance is Zero.
Through a four-step derivation, we demonstrate that Time Dilation (Δt) is not merely a geometric effect of moving frames, but the physical manifestation of the system verifying its own internal constants. When the numerator—composed of the structural golden ratio (ϕ), transcendental (e), and interactional α zeros—is successfully audited against the mass-energy ledger (mc²), the result is the Newton-Light (Nλ) equilibrium. This removes 'uncertainty' from the relativistic equation, replacing it with a Zero-Sum Deterministic Latency.
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- Preprint: 10.5281/zenodo.19952559 (DOI)
References
- Dirac, P. A. M. (1928). The quantum theory of the electron. Proceedings of the Royal Society of London. Series A, Containing Papers of a Mathematical and Physical Character, 117(778), 610–624.
- Einstein, A. (1905). Zur Elektrodynamik bewegter Körper [On the Electrodynamics of Moving Bodies]. Annalen der Physik, 17(891), 10.1002/andp.19053221004.
- Euclid. (c. 300 BCE). The Elements. (T. L. Heath, Trans., 1908). Cambridge University Press.
- Euler, L. (1748). Introductio in analysin infinitorum [Introduction to the Analysis of the Infinite]. Marcum-Michaelum Bousquet.
- Feynman, R. P. (1949). Space-time approach to quantum electrodynamics. Physical Review, 76(6), 769–789.
- Kepler, J. (1611). Strena seu de nive sexangula [The Six-Cornered Snowflake]. Gottfried Tampach.
- JWST Advanced Deep Extragalactic Survey (JADES) Collaboration. (2026). High-metallicity galactic cores and structural maturation in the ultra-early universe (z > 10): Final reports from the 2026 deep-field campaign. NASA/ESA/CSA Space Telescope Science Institute.
- Labbé, I., van Dokkum, P., Nelson, E. J., Bezanson, R., Suess, K. A., Leja, J., Brammer, G., Whitaker, K., Mathews, E., & Stefanon, M. (2023). A population of early, massive galaxies 500–700 million years after the Big Bang. Nature, 616(7956), 266–269. https://doi.org/10.1038/s41586-023-05786-2
- Lorentz, H. A. (1904). Electromagnetic phenomena in a system moving with any velocity smaller than that of light. Proceedings of the Royal Netherlands Academy of Arts and Sciences, 6, 809–831.
- Schevchenco-Sczepanink, G. (2026). The Triple-Zero Unification, From Lattes-Galois Symmetry to the Newton-Light Bipartition: Extracting Newton-Light (Nλ) from the Triple-Zero Null State of Lattes-Galois. Zenodo. https://doi.org/10.5281/zenodo.19952559
- Sommerfeld, A. (1916). Zur Quantentheorie der Spektrallinien [On the Quantum Theory of Spectral Lines]. Annalen der Physik, 356(17), 1–94.