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ELS (Entangled Light Structure) Framework: Macroscopic Frequency-Based Environmental Control Model for Quantum Entanglement Stability

Myeong-Seop kim

Published Jan 24, 2026• 0 citations
Publisher

Abstract

This section presents a theoretical framework in which the environment surrounding a quantum entangled system is interpreted not through localized parameter control, but through a macroscopic frequency-domain description. The purpose of this work is not experimental verification, but the formulation of a mathematically consistent possibility model. newbalancems@naver.com

DOI
10.5281/zenodo.18358014

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This section presents a theoretical framework in which the environment surrounding a quantum entangled system is interpreted not through localized parameter control, but through a macroscopic frequency-domain description. The purpose of this work is not experimental verification, but the formulation of a mathematically consistent possibility model. newbalancems@naver.com
Conventional studies of quantum entanglement have primarily focused on maintaining entangled states through extreme environmental isolation, such as cryogenic temperatures, electromagnetic shielding, and local noise suppression. While successful in controlled laboratory conditions, these approaches face fundamental limitations when extended to realistic or room-temperature environments. In this work, entanglement is not treated as a fragile state that must be rigidly preserved,but rather as a relational structure that emerges within a dynamically constrained temporal environment. This motivates a shift in perspective: from localized control of physical variables to a global interpretation of the environment as a structured frequency domain. newbalancems@naver.com
This project introduces the ELS Framework, a thought-experiment–based interpretative model that reexamines quantum entanglement, decoherence, and high-energy interaction processes through the lens of entropy flow and frequency-structured environments. Rather than treating decoherence as noise to be eliminated, this framework interprets it as a redistributable energy flow, which can be guided, layered, and stabilized under specific environmental conditions. Within this context, Scatter Armor is proposed as a conceptual structure that disperses interaction pathways, reducing local collapse while preserving global entanglement continuity. The core idea is not the isolation of quantum states, but the management of transitional processes—where energy, information, and degrees of freedom remain distributed yet correlated across multiple channels. Mathematical formalism is intentionally minimized in favor of conceptual clarity and physical intuition. While not presenting a validated theory or experimental design, this work aims to expand methodological perspectives on: Entanglement as a process-based connectivity rather than a static state Decoherence as an energy redistribution mechanism Gradient-based optical potential environments as stabilizing structures Possible conceptual extensions toward fusion-scale and high-energy systems This project is intended as an exploratory foundation for further theoretical refinement, modeling, or interdisciplinary discussion.
This study proposes a framework for macroscopic entanglement maintenance and electromagnetic field structure formation based on electron-proton-photon interactions. By integrating the analysis of excited electrons, angular momentum, photon synchronization, and energy responses in insulators and conductors, it explains the mechanisms of entanglement preservation and the fundamental principles of material structure formation. Key messages of this research include: Electron angular momentum is not a mere rotation but serves to lock spatial information into specific geometrical structures (torus, helix, etc.), determining topological stability and directional orientation of the system. Photons synchronize energy fields between electrons and protons to maintain macroscopic entanglement, regulating oscillations and waves depending on intensity and phase changes. Comparison of insulators and conductors clarifies electron energy oscillation and phase characteristics, while high-pressure environments act as entropy defense layers. This framework allows numerical modeling and experimental verification using natural phenomena (cesium oscillation, time crystals) and experimental data. It can be further extended to quantum entanglement-based information systems, material structure control, and novel energy-matter interaction applications. newbalancems@naver.com
Using thought experiments as a central methodology, this project proposes a theoretical framework that bridges traditionally segregated academic perspectives—including physics, quantum mechanics, information theory, and thermodynamics. The ELS Framework reinterprets quantum phenomena through the lens of minimal degrees of freedom. Prioritizing conceptual architecture and physical intuition over rigid mathematical derivation, this research provides a unified explanation for quantum coherence, decoherence, material stability, and the fundamental relationship between time and density. Furthermore, this framework presents conceptual design ideas for future quantum technologies, energy control systems, and physics-based innovations. The ultimate goal of this project is to establish a foundational vision that invites future theoretical formulation and experimental validation.