Abstract The instantaneous superluminal synchronization of quantum entanglement is one of the most core and controversial fundamental problems in modern quantum mechanics. For a century, Einstein’s hidden variable hypothesis based on local realism and Bohr’s interpretation of quantum randomness have never been self-consistently compatible, forming a classic physical paradox: why entangled particles can achieve instantaneous state synchronization at spacelike intervals without violating the principle of constancy of light speed. Traditional quantum mechanics only describes the phenomenon mathematically through wave function collapse and fails to reveal the underlying physical mechanism of entanglement synchronization. Based on the FQ Gravitational Pressure Unified Field Theory, this paper takes the global graviton fluid as the underlying cosmic medium and establishes a quantum homologous vortex topological channel model. This study proves that entangled particle pairs are not independent individuals in three-dimensional space, but dual vortex topological structures homogeneously differentiated from the underlying graviton fluid. They form a rigidly connected system relying on high-dimensional continuous topological channels and are constrained by global flux conservation. Through the derivation of fluid pressure difference perturbation and instantaneous topological stress transmission, this paper completely restores the physical process of quantum observation collapse and state synchronization, and explains the essential mechanism of delay-free quantum entanglement synchronization at the fundamental physical level. The proposed model perfectly avoids the paradox of superluminal signals and thoroughly resolves the century-long debate between hidden variables and pure randomness. It provides a novel fluid mechanics paradigm for quantum entanglement, quantum correlation and quantum nonlocality, and further optimizes the microscopic quantum framework of the FQ Unified Field Theory. 摘要 量子纠缠的瞬时超距同步现象是现代量子力学最核心、争议最大的基础难题之一。百年以来,爱因斯坦定域实在论的隐变量假说与玻尔的量子随机性解释始终无法自洽兼容,形成物理学经典悖论:纠缠粒子为何可在类空间隔下实现瞬时状态同步,且不违反光速不变原理。传统量子力学仅能通过波函数坍缩对现象进行数学描述,无法揭示纠缠同步的底层物理机制。本文基于FQ引力压统一场论体系,以全域引力子流体为宇宙底层介质,建立量子同源旋流拓扑管道模型。本文证明:纠缠双粒子并非三维空间独立个体,而是底层引力子流体同源分化的双旋流拓扑结构,二者依托高维连续拓扑管道形成刚性连通体系,具备全域通量守恒约束。通过流体压差扰动与拓扑应力瞬时传递推导,完整还原量子观测坍缩与状态同步的物理过程,从底层解释量子纠缠无延时同步的核心本质。该模型完美规避超光速信号悖论,彻底消解隐变量与纯随机的百年争论,为量子纠缠、量子关联及量子非定域性提供全新流体力学底层范式,进一步完善FQ统一场论的微观量子体系架构。
Abstract The instantaneous superluminal synchronization of quantum entanglement is one of the most core and controversial fundamental problems in modern quantum mechanics. For a century, Einstein’s hidden variable hypothesis based on local realism and Bohr’s interpretation of quantum randomness have never been self-consistently compatible, forming a classic physical paradox: why entangled particles can achieve instantaneous state synchronization at spacelike intervals without violating the principle of constancy of light speed. Traditional quantum mechanics only describes the phenomenon mathematically through wave function collapse and fails to reveal the underlying physical mechanism of entanglement synchronization. Based on the FQ Gravitational Pressure Unified Field Theory, this paper takes the global graviton fluid as the underlying cosmic medium and establishes a quantum homologous vortex topological channel model. This study proves that entangled particle pairs are not independent individuals in three-dimensional space, but dual vortex topological structures homogeneously differentiated from the underlying graviton fluid. They form a rigidly connected system relying on high-dimensional continuous topological channels and are constrained by global flux conservation. Through the derivation of fluid pressure difference perturbation and instantaneous topological stress transmission, this paper completely restores the physical process of quantum observation collapse and state synchronization, and explains the essential mechanism of delay-free quantum entanglement synchronization at the fundamental physical level. The proposed model perfectly avoids the paradox of superluminal signals and thoroughly resolves the century-long debate between hidden variables and pure randomness. It provides a novel fluid mechanics paradigm for quantum entanglement, quantum correlation and quantum nonlocality, and further optimizes the microscopic quantum framework of the FQ Unified Field Theory. 摘要 量子纠缠的瞬时超距同步现象是现代量子力学最核心、争议最大的基础难题之一。百年以来,爱因斯坦定域实在论的隐变量假说与玻尔的量子随机性解释始终无法自洽兼容,形成物理学经典悖论:纠缠粒子为何可在类空间隔下实现瞬时状态同步,且不违反光速不变原理。传统量子力学仅能通过波函数坍缩对现象进行数学描述,无法揭示纠缠同步的底层物理机制。本文基于FQ引力压统一场论体系,以全域引力子流体为宇宙底层介质,建立量子同源旋流拓扑管道模型。本文证明:纠缠双粒子并非三维空间独立个体,而是底层引力子流体同源分化的双旋流拓扑结构,二者依托高维连续拓扑管道形成刚性连通体系,具备全域通量守恒约束。通过流体压差扰动与拓扑应力瞬时传递推导,完整还原量子观测坍缩与状态同步的物理过程,从底层解释量子纠缠无延时同步的核心本质。该模型完美规避超光速信号悖论,彻底消解隐变量与纯随机的百年争论,为量子纠缠、量子关联及量子非定域性提供全新流体力学底层范式,进一步完善FQ统一场论的微观量子体系架构。
Abstract Quantum entanglement is the most famous nonlocal phenomenon in modern physics, and its instantaneous ultra-distance correlation has puzzled physicists for nearly a century. Einstein referred to this effect as “spooky action at a distance”, because it seemingly violates the local causality and light-speed limit of general relativity. Traditional physical theories can only describe entanglement through mathematical wave functions but cannot explain its fundamental physical origin. Based on the three-dimensional time quantization unified field theory, this paper proposes a novel physical mechanism for quantum entanglement. The instantaneous synchronization of entangled particles does not rely on spatial signal transmission, but originates from the shared coupling of the fluctuating time dimension. Quantum systems can bypass classical spatial restrictions through time-dimensional resonance, perfectly explaining quantum nonlocality without violating relativistic rules. This study fundamentally resolves the core contradiction between quantum mechanics and general relativity, reveals the essential nature of entanglement, and completes the systematic theoretical verification of the three-dimensional time unified field framework. AI Usage Note: All theoretical ideas, mathematical derivations and conclusions are independently created by the author. Generative AI was only used for linguistic polishing of sentences. The author takes full responsibility for all content.
Quantum entanglement represents one of the most profound and counterintuitive phenomena in modern physics, challenging our classical understanding of locality and causality. While the mathematical formalism of quantum mechanics accurately predicts entanglement correlations, the lack of a physically intuitive mechanism has led to numerous interpretational difficulties and philosophical debates. This article presents a comprehensive analysis of existing interpretations of quantum entanglement, from the Copenhagen interpretation to many-worlds and hidden variable theories, highlighting their limitations and motivating a novel vortex-based interpretation grounded in the hydrodynamic behavior of a superfluid vacuum, drawing upon the author’s published work on electron, quark, and gravitational force dynamics. This vortex model provides a physically intuitive and causally consistent explanation for nonlocal correlations without invoking superluminal signaling, offering a bridge between classical physics and quantum mechanics. The proposed interpretation suggests that entangled particles are surface manifestations of deeper, coherent vortex structures within a continuous vacuum medium, analogous to connected vortices in a fluid system. This framework not only resolves the conceptual difficulties associated with “spooky action at a distance” but also provides a foundation for understanding quantum phenomena through classical hydrodynamic principles.
Version Note: This Zenodo record is an early-stage iteration of the quantum mechanics framework. The complete, finalized, and official version has been published on Preprints.org. Please refer to and cite the Preprints.org version for the definitive theoretical details:DOI: 10.20944/preprints202610.0834.v1 (Title on Preprints.org: Homologous-Origin Perturbation Phase-Locking: Ontological Account for Quantum Non-Local Correlation Within the Static-Substrate Local-Perturbation Paradigm) Abstract Based on the primordial static substrate paradigm, this paper proposes a homologous perturbation phase synchronization mechanism to provide a novel ontological account for the nonlocal correlation observed in quantum entanglement.We first analyze the inherent defects of mainstream quantum interpretations including the Copenhagen interpretation, many-worlds interpretation and Bohmian mechanics. Built upon the unified axiomatic system of primordial static substrate and local perturbation dynamics, the model achieves full compatibility with all existing Bell-type experimental observations, without postulating superluminal signal transmission.Within this framework, entanglement originates from synchronized phases inherited at the splitting of homologous perturbations. Nonlocal correlation is an intrinsic shared property of the unified source system rather than real-time information exchange between separated particles. The scheme naturally satisfies Lorentz invariance and avoids the conceptual contradictions plaguing nonlocal hidden-variable theories.We further elaborate the decoherence mechanism under this paradigm and draw clear distinctions with existing theoretical frameworks. This work only delivers qualitative ontological reasoning, and we outline subsequent research directions for quantitative derivation and discriminative experimental design.This manuscript is a branch of the author’s serial research on the system of primordial static substrate and local perturbation universe. It unifies microscopic quantum correlation and macroscopic gravitational convergence as distinct scale manifestations of the substrate’s inherent homing self-recovery tendency. This preprint is released under the Creative Commons Attribution 4.0 International License.
Aiming at the long‑standing puzzles of "spooky action‑at‑a‑distance" and the mainstream academic controversy over "no information transfer" in quantum entanglement, this paper proposes a novel physical interpretation based on the self‑balanced dynamical properties of space, the division of microscopic spatial dynamical domains, as well as the scale‑boundary features of vacuum confinement and asymptotic freedom. Quantum entanglement is regarded not merely as a non‑local probabilistic representation, but as a global primordial‑information transfer mechanism governed by microscopic spatial dynamical domains.At the moment of their generation, entangled particle pairs couple to the same set of microscopic spatial dynamical domains. Once measurement perturbs the underlying states of these domains, state synchronization is completed instantaneously across the whole domain. Such synchronization can propagate far faster than the speed of light, representing a genuine physical information transfer at the fundamental cosmic level.The mainstream physical statement of "no information transfer" only indicates that human‑controlled encoded artificial information cannot be transmitted via entanglement, rather than denying real state‑information transfer at the cosmic scale. By backward‑deriving domain characteristics from the microscopic scale boundary of 10-15m and vacuum‑confinement mechanisms, this paper reasonably explains puzzles including entanglement long‑distance synchronization, superluminal‑signal phenomena, asymptotic freedom and the fundamental origin of color confinement. It eliminates the mystified interpretation of quantum entanglement and delivers a dynamical explanation for this phenomenon.
Modern theoretical physics interprets quantum entanglement and the quantum erasure phenomenon through the lens of ontological probability, wave-function collapse, or faster-thanlight informational exchange. This study presents a strictly deterministic, classical alternativewithin the framework of the Dynamic Vacuum Theory (DVT). We model the universal spacetime fabric as a physical, non-viscous (µ = 0), and incompressible (∇ · u = 0) superfluidvacuum ocean. Fundamental particles are defined as localized topological vortices—termedArtik-Vortices—governed by the incompressible Euler and Navier-Stokes equations. We provethat quantum entanglement is not an informational transmission across space, but an instantaneous global pressure stabilization requirement dictated by the Artik-Vortex Equilibrium Law( Σ(∇ · Pv)dΩ = 0). Furthermore, the delayed-choice quantum eraser experiment is resolvedmechanically: the extraction or erasure of ”which-way” data represents the injection or damping of localized pressure anomalies within the superfluid, enabling the medium to undergo aself-healing process that restores global wave interference. This framework seamlessly bridgesquantum mechanics and macro-astrophysics, replacing dark matter with hydrodynamic vacuumpressure gradients without violating the relativistic limits of localized wave propagation.
Quantum entanglement is the most fundamental unsolved problem in quantum physics. Traditional quantum mechanics can describe entanglement mathematically, but lacks physical carrier, dimensional origin, and intuitive microscopic mechanism, and cannot reconcile nonlocal correlation with the speed of light limit. Based on the self-established chaotic dual-divide axiom system, this study adheres to the hierarchical principle: explain phenomena in three dimensions whenever possible, and resort to high-dimensional ontology only when 3D logic fails. Quantum transition, quantum tunneling, and the photoelectric effect are purely 3D behaviors, while quantum entanglement can only be explained by high-dimensional projection topology. This paper establishes three hierarchical definitions of light: original high-dimensional light, primary projected light, and secondary artificial light. It proposes that cosmic dimensional degradation strictly follows the 2ⁿ dual binary iteration rule, in which all dimensional degrees of freedom exist in symmetric pairs without unidirectional isolation. Quantum entanglement is not superluminal signal transmission in 3D space, but the residual phase correlation of high-dimensional binary topological structures after being projected and spatially divided in three dimensions. The non-fallen high-dimensional original light serves only as the continuous topological substrate and does not produce entanglement directly. Primary light naturally carries connected topological links, while secondary light can regain entanglement by artificially reconstructing binary symmetric structures. This model strictly maintains compatibility with special relativity: all 3D energy and information transmission obeys the speed limit, while entanglement synchronization belongs purely to high-dimensional holistic topological adjustment, requiring no 3D carrier propagation. 中文摘要 量子纠缠的非局域瞬时关联,是百年来量子力学最核心的本源疑难问题。现有理论可通过密度矩阵、贝尔不等式对纠缠现象进行数学描述,但始终缺失物理载体、成因机制、维度根源的物理解释,无法自洽解答超距同步与相对论光速约束的兼容问题。 本系列研究依托自建混沌二分本源公理体系,坚持「能三维则三维,三维无解再溯源高维」的层级研究原则:量子跃迁、量子隧穿、光电效应为纯三维电子驻波行为,无需高维假设;而量子纠缠属于三维局域框架无法解释的拓扑关联现象,必须回溯高维投影机制完成闭环解释。 本文建立体系独有三层光层级定义:本源光、一手光、二手光,严格区分高维基底介质与三维可投影粒子波动;同时确立高维降维核心规则:宇宙维度跌落遵循 2ⁿ 对偶二分迭代规律,所有维度自由度天然成对对称,无孤立单向分量。 研究表明:量子纠缠并非三维空间的超光速信号传递,而是高维同源二分拓扑结构经三维投影切开后,残留的原生相位关联。未跌落的全域高维本源光仅作为公共拓扑基底,不直接产生纠缠;发生二分投影的一手光天然携带高维连通链路,具备原生纠缠属性;三维人工二手光可通过复刻一分二对称拓扑结构,重新复现纠缠效应。 本文严格区分维度层级与物理作用边界:三维能量、粒子、信息传播严格遵守光速限制,纠缠仅为高维拓扑本体的整体同步重构,无三维载体跨空间传输,与狭义相对论完全自洽。最终完成「总纲本源—三维量子行为—非局域拓扑关联」的全域物理体系闭环。 关键词: 量子纠缠;八字扭结驻波;高维投影;二分迭代;三层光;非局域关联;退相干