Data Teleportation and the Theory of Randomness Structure (TRS): Foundations and AlquimS Resonant Coupling Protocols

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Authors: SILAS FRANCA
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Abstract

This repository contains the foundational technical documentation for the Theory of Randomness Structure (TRS) and the AlquimS Resonant Coupling Module, developed by Silas Carvalho França. Overview The TRS Theory proposes a paradigm shift in our understanding of the vacuum, modeling it as an informational fluid with a structured, non-random geometry. By identifying that the vacuum operates as a Temporal Informational Crystal governed by Golden Ratio ($\Phi$) harmonics, this framework allows for the development of technologies that bypass classical limitations of space and time. Key Components The AlquimS Interface: A theoretical engineering module designed to couple with the vacuum's informational density. It synchronizes physical or digital packets with specific resonant frequencies, enabling interaction with the fundamental fabric of the medium. Data Teleportation (TDS): The primary application of TRS. By utilizing discrete phase jumps through the vacuum's harmonic nodes, TDS enables near-zero latency information transfer, independent of classical distance constraints. MTF-TRS Protocol: A comprehensive Manual of Tolerance and Faults. This section defines the safety "watchdogs" and mathematical inequations required to maintain informational integrity and prevent fragmentation during teleportation jumps. Technical Content This document provides the complete mathematical and algorithmic basis for the theory, including: The Pilot Equations for phase-gradient navigation. Phase-Group Synchrony conditions ($|v_g - v_{\text{phase}}| \le \varepsilon_v v_{\text{phase}}$). Topological Quantization of jumps through integer $k$ charges. Phonon Decay and thermal dissipation management within the informational crystal. Impact This work establishes the engineering foundations for the next generation of communication and propulsion systems, shifting from electromagnetic-based propagation to Resonant Informational Displacement.

Fields of Study & Subjects

Advanced Mathematical Theories and Applications Quantum Electrodynamics and Casimir Effect Relativity and Gravitational Theory

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
4 February 2026