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July 7, 20260 citationsOpen Access

Unified field theory explanation.

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ASAkil Akbar Sayyad Akil Akbar Sayyad

Key Points

  • This research aims to synthesize the Unified Field Framework (UFF) to reconcile General Relativity and Quantum Mechanics by eliminating singularities and redefining spacetime geometry.
  • Introduced a quantum-corrected spatial metric modification using quadrature addition to eliminate singularities.
  • Applied the Generalized Uncertainty Principle to establish a fundamental spatial resolution bound.
  • Analyzed effective gravitational force and electrostatic potential utilizing regularized equations.
  • Eliminated point-like singularities by defining an absolute lower bound for spatial resolution at the Planck scale, Δxmin ≈ lp.
  • Established effective gravitational force as Feff = GMm / (r² + lp²), resolving forces to a finite maximum bound at r = 0.
  • Demonstrated electrostatic potential achieving a finite maximum V(0) ≈ 8.91 × 1025 Volts.

Abstract

Abstract This master comprehensive document synthesizes the Unified Field Framework (UFF), a paradigm shift defining the universe as a discrete 12-bit binary vacuum matrix. By reconciling General Relativity with Quantum Mechanics through the Generalized Uncertainty Principle (GUP), we demonstrate that particle mass is an intrinsic eigenvalue of spherical spacetime geometry rather than an extrinsic field interaction. Point-like singularities are structurally eliminated by establishing a fundamental lower bound on spatial measurements at the Planck scale. 2. Theoretical Foundations & Geometric Regularization Standard macroscopic physical models break down at r = 0, resulting in infinite values and singular coordinates. To eliminate physical singularities where distance tends to zero, the UFF introduces a quantum-corrected spatial metric modification via quadrature addition. The macroscopic distance r and the fundamental quantum spatial fluctuation lp (Planck length) represent independent physical constraints. Combined in quadrature, they define the effective spacetime distance: reff = √(r² + lp²) 2.1. Foundation via Generalized Uncertainty Principle (GUP) Incorporating quantum gravity and high-energy momentum distortions at the Planck scale introduces a fundamental correction term to Heisenberg's Uncertainty Principle: Δx ≥ ℏ / (2Δp) + βΔp where β ≈ lp² / ℏ² . Minimizing tthe universe as a discrete 12-bit binary vacuum matrix. By reconciling General Relativity with Quantum Mechanicshe spatial uncertainty yields the absolute lower bound for spatial resolution, proving that spacetime possesses an inherent thickness: Δxmin ≈ lp . 2.2. Resolution of Singularities Applying this regularized framework to classical Newtonian gravity and General Relativity structures successfully removes mathematical infinities: Effective Gravitational Force: Feff = GMm / (r² + lp²). At r = 0, the force resolves to a finite maximum bound Fmax = GMm / lp² ≈ 1.52 × 1084 N. Kretschmann Scalar (Schwarzschild Geometry): Ks = 48M²G² / (c²reff⁶). UndeThis master comprehensive document synthesizes the Unified Field Framework (UFF), a paradigm shift definingr boundary limits, lim(r→0) Ks = Kmax = 48lp-4 = 3.1 × 10139 m-4, preventing space-time tearing. Electrostatic Potential: V(r) = q / (4πε0√(r² +lp²)), yielding a finite max threshold V(0) ≈ 8.91 × 1025 Volts. • • • Unified Field Framework (UFF) — Master Synthesis Report Page 1 3. The 12-Bit Information Matrix Structure The quantum vacuum is modeled as a discrete binary information configuration space. The baseline geometric capacity limits and regulators are structurally established by the system capacity constraints: Vacuum Cutoff Efficiency: η cutoff = 1 - 2-¹² ≈ 0.999756 Final Geometric Regulator: Γgeom = ηcutoff × (1 - αQG / π³) ≈ 0.998497

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Cite This Study

Akil Akbar Sayyad Akil Akbar Sayyad (2026) studied this question.

synapsesocial.com/papers/6a4c9711331bc25c9e5f4268https://doi.org/10.5281/zenodo.21199085
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