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تفسير التشابك الكمي وفق الرنين التفاعلي

Wessam Al_dami

Published Aug 31, 2026• 0 citations
Publisher

Abstract

Towards a Mechanical Explanation of Quantum Entanglement (A Brief Study)Are the two seemingly separated particles in quantum entanglement truly two distinct entities?Moving beyond the traditional assumption of faster-than-light signals travelling across space, this brief study within the framework of Interactive Resonance Theory proposes a radical paradigm shift: What if there are no two independent particles at all, but rather a single "resonance state" with a shared dynamic structure, manifesting as two spatial appearances?The proposed model builds upon key conceptual elements, including: * The Global String: Representing the foundational dynamic structure and free pulse of the system. * The Active Medium: A localized responsive environment equipped with limited transitional memory. * Frequency Compatibility Conditions (\Delta\omega < \varepsilon): The precise threshold governing when resonance coupling emerges and stabilizes.Moving systematically from a vibrating system to rigorous mathematical formulation, the model derives a specific equation describing resonance coupling, which is subsequently validated through targeted numerical simulations.❓ The Question That Remains Open:If quantum entanglement is not a dilemma of information transmission, but a direct reflection of a unified dynamic state—how was the exact mathematical relationship derived, and what do the detailed numerical simulation results reveal about this behavior?The complete paper, featuring full mathematical derivations and in-depth analyses, will be presented in the forthcoming full release. Wessam aldami

DOI
10.5281/zenodo.22206859

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Towards a Mechanical Explanation of Quantum Entanglement (A Brief Study)Are the two seemingly separated particles in quantum entanglement truly two distinct entities?Moving beyond the traditional assumption of faster-than-light signals travelling across space, this brief study within the framework of Interactive Resonance Theory proposes a radical paradigm shift: What if there are no two independent particles at all, but rather a single "resonance state" with a shared dynamic structure, manifesting as two spatial appearances?The proposed model builds upon key conceptual elements, including: * The Global String: Representing the foundational dynamic structure and free pulse of the system. * The Active Medium: A localized responsive environment equipped with limited transitional memory. * Frequency Compatibility Conditions (\Delta\omega < \varepsilon): The precise threshold governing when resonance coupling emerges and stabilizes.Moving systematically from a vibrating system to rigorous mathematical formulation, the model derives a specific equation describing resonance coupling, which is subsequently validated through targeted numerical simulations.❓ The Question That Remains Open:If quantum entanglement is not a dilemma of information transmission, but a direct reflection of a unified dynamic state—how was the exact mathematical relationship derived, and what do the detailed numerical simulation results reveal about this behavior?The complete paper, featuring full mathematical derivations and in-depth analyses, will be presented in the forthcoming full release. Wessam aldami
A Mechanical Explanation of Quantum Entanglement via Interactive Resonance Theory (Resonant Coupling Model) Author: Wissam Al-Dami Abstract: Quantum entanglement remains one of the most intriguing and counter-intuitive phenomena in modern physics. While standard quantum mechanics provides robust statistical predictions, it often lacks a direct, deterministic mechanical explanation for the underlying mechanisms governing instantaneous correlations across distances. This paper introduces a novel physical framework grounded in Interactive Resonance Theory. Moving away from the premise of "ghostly" information traveling faster than light, the proposed model reinterprets particles not as isolated entities, but as dynamic, stable vibrational patterns arising from continuous frequency matches between a foundational Global String and an Active Interactive Medium. Building upon John Wheeler's One-Electron Universe hypothesis, entanglement is modeled as the resonant manifestations of a single, unified entity vibrating simultaneously at distinct local points. A key contribution of this work is the rigorous formulation of a foundational mathematical equation that mathematically bridges spatial correlation functions directly with dynamic system responses—incorporating system acceleration, intrinsic natural frequencies, and precise damping constraints. By treating damping parameters as dynamic bandwidth filters, the framework establishes exact threshold criteria required to sustain stable quantum correlations without energy dissipation. The proposed model undergoes dimensional analysis and numerical validations to verify structural consistency and physical causality. To explore the complete foundational mathematical derivations, dimensional checks, and numerical verification scenarios, download the full paper.
The nonlocality of quantum entanglement reveals instantaneous correlations that transcend classical spacetime, yet standard quantum mechanics merely accepts this as a brute fact without providing a deeper ontological explanation. This paper starts from a single irreducible first principle: matter, information, and energy can be transmitted with zero latency (instantaneously) between any two points in the universe. From this first principle, the Instantaneous Teleportation Cosmos (ITC) framework is constructed, and the nature of spacetime is redefined: spacetime is not ultimate reality but an emergent phenomenon projected from a deeper, non‑spatial basal structure. The basal structure possesses six basic properties—Storage Perfection (P1), Instantaneous Connectivity (P2), Mapping Determinacy (P3), Manifestation Finiteness (P4), Basal Resonance Tunability (P5), and Consciousness Coupling (P6). However, the framework lacks a rigorous axiomatic formulation and a precise mathematical model for these properties. This paper accomplishes two core tasks. First, we formulate P1–P6 as rigorous mathematical axioms, define the basal state space HB as a separable Hilbert space, prove the independence of the axioms, and derive the basal dynamical equation—the basal Schrödinger equation. Second, we propose a concrete mathematical model of the basal structure—a fully connected tensor network with a specific weight distribution and quantum state structure—and rigorously prove that this model naturally satisfies all requirements of these six properties. Within this framework, emergent spatial distance is shown to be proportional to the inverse of the weight, the maximally mixed state in standard quantum mechanics is a natural consequence of the network’s fully connected topology, and the graph Schrödinger equation converges to non-relativistic quantum mechanics in the continuum limit. This model provides a solid mathematical foundation for the ITC framework, completing its paradigm shift from “philosophical assertion” to “mathematical science.”
Quantum Entanglement-one of the weirdest and most exciting aspects of quantum mechanics. Two or more particles become entangled in a way that if the state of one of the particles is measured, then instantaneously the state of another particle is determined even if they are far apart from one another. The content of this paper explores the details of quantum entanglement: where it came from, what the basic principles are, what experiments support this notion, and what experiments we use to study entanglement. The trends of the data are laid out and what it signifies. From here, I then move to what effects quantum entanglement will have on quantum computing, cryptography and communication. I will attempt to justify my arguments through thirteen published academic sources prior to 2019.
This publication develops the geometric interpretation of the Resonance-Based Subspace Dynamics (RBS-D) framework, extending the conceptual foundation introduced in Publication 01. It establishes a structural description in which physical reality is modeled as a continuous subspace, where particles and observable properties emerge from stable resonance configurations and relational mode structures. This publication (No. 02 / 24) defines the geometric interpretation layer of the RBS-D framework and provides the transition from conceptual hypothesis to structurally interpretable subspace geometry. Core Contributions: • Introduction of a structural vision for a unified physical description based on resonance dynamics • Definition of physical entities as:Stable, phase-coherent mode configurations within a continuous subspace • Conceptual shift from particles to:Relational, geometry-dependent structures • Interpretation of physical properties as:– emergent from internal structure– dependent on phase relations and coupling geometry • Structural hypothesis:Mathematical state spaces represent projections of deeper relational subspace structures Motivation and Conceptual Position: Modern physics provides highly accurate predictions, yet often relies on abstract mathematical frameworks with limited direct structural interpretation. Phenomena such as:• high-dimensional quantum states• nonlocal correlations• wave-particle duality suggest that an underlying structural layer may exist. RBS-D introduces a framework that:• preserves empirical validity• while offering a more physically interpretable structural description Core Principles: • Physical reality is continuous at the foundational level • Stable physical entities correspond to resonance states with phase coherence • Observable properties emerge from internal geometric and relational structure • Mathematical representations correspond to projections of deeper subspace relations Within the RBS-D framework, physical systems are described in terms of: • continuous subspace structures• phase-coherent mode configurations• relational geometry between interacting components• resonance-based stability conditions RBS-D CONTENT MAP (Series Navigation) • Core Focus:Conceptual and geometric vision of subspace-based physical description • Key Contribution:Transition from conceptual hypothesis (P01) to geometric interpretation • Extends:→ Publication 01 (Foundational Concept and Structural Framework) • Leads to:→ Publication 03 (Mathematical Operator Formalization)→ Publication 04 (Stability Theory of Resonance Structures) • Application Context:Conceptual physics, geometric modeling, interpretation of quantum and field structures Recommended Entry Path: → Publication 01 (Conceptual Foundation)→ Publication 03 (Mathematical Formalization)→ Publication 04 (Stability Theory) Series Context: This publication is part of the 24-part framework"Resonance-Based Subspace Dynamics (RBS-D)". The series develops a unified structural approach across: • theoretical physics• applied mathematics• nonlinear dynamics• plasma and fluid systems• astrophysical structures The framework progresses from conceptual foundations (P01–P03)to geometric and stability analysis (P04–P07),and further toward applied resonance engineering (P15–P24). Scientific Position: RBS-D does not replace established physical theories, but provides a structural interpretation that connects them through resonance-based dynamics and relational geometry. Abstract (English) This publication develops the geometric interpretation of the Resonance-Based Subspace Dynamics (RBS-D) framework, in which physical reality is described as a continuous subspace structured by resonance and phase relations. Physical entities are interpreted as stable, phase-coherent mode configurations, while observable properties emerge from internal geometric and relational structure. Mathematical state spaces are understood as projections of deeper subspace dynamics. This work establishes the transition from conceptual foundation to geometric interpretation and provides the basis for subsequent mathematical formalization and stability analysis within the RBS-D series.
Abstract Two or more particles which have interacted in the past, may in general maintain nontrivial quantum mechanical correlations, described by non-factorized wave functions. These correlations, under optimal conditions, can manifest themselves no matter how far they travel away from each other and even when the separate parts cannot dynamically influence each other, leading to apparently paradoxical situations. These correlations are known as quantum entanglement. However counter-intuitive and surprising it may sometimes look, it is rather one of the more beautiful and experimentally well established predictions of quantum mechanics.