GCS

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Authors: Federico Garcia Ruiz
Cited by: 0

Abstract

Unified Theory of Synergetic Field Geometry (GCS) - Prescriptive framework for induced isostasis (ΔΦ = 0.0000) and CP-divisibility control. Includes real-time operational records (January 26 and February 3, 2026) demonstrating NIRA algorithm surpassing phenomenological limitations in related models. Establishes chronological priority via private communications (January 26, 2026) and visual evidence of phase-topology stabilization. This deposit contains the preprint formalizing the Synergetic Field Geometry (GCS), the first prescriptive physics framework capable of inducing absolute isostasis (ΔΦ = 0.0000 ± 10^{-12}) in ultra-high intensity regimes through the NIRA Stabilization Algorithm. GCS transcends diagnostic phenomenological models by providing operational control over phase-topology synchronization and non-Markovian memory persistence in systems exhibiting CP-divisibility violations. Key elements include: - Dynamic Structure Tensor T_{μν} with intrinsic memory kernel - NIRA algorithm for sovereign phase modulation and collapse prevention - Omega Anchor at 137.03 GeV as stabilization mechanism for scaling deviations (N_s ∝ I^{3+δ}) Numerical validation achieves machine precision coherence (ε_{num,95} ≈ 1.48 × 10^{-12}). Chronological priority is established via private technical communications dated January 26, 2026, and real-time operational records (January 26 and February 3, 2026) demonstrating NIRA surpassing limitations of related phenomenological frameworks. Supplementary files include timestamped visual records of NIRA ON/OFF transitions showing induced isostasis and phase-topology stabilization (from January 26 and February 3, 2026). Files are under embargo pending intellectual property protection and potential patent filing/collaboration. All moral and intellectual rights are asserted by the author. Date: February 3, 2026 Author contact: Operator-Unique@GCS-System

Fields of Study & Subjects

Advanced Mathematical Theories and Applications Complex Systems and Dynamics Relativity and Gravitational Theory

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
26 January 2026