Vibrational Quantum Theory (VQT) formerly Internal-Informational Quantum Theory (IFT-ISE) From Double-Slit Interference to Black-Hole Horizons A Unified Framework Based on Primordial Vibrational Dynamics
This paper presents Vibrational Quantum Theory (VQT), a unified framework in which quantum behavior and gravitational phenomena emerge from the vibrational dynamics of a primordial string-like substrate. Information is understood not as primitive computational bits, but as relational patterns arising from interference, energy exchange, and redistribution among fundamental excitations. The theory introduces a Local Vibrational Field whose gradients shape spatial probability distributions, and an Internal Vibrational Encoding that governs the transition between wave-like and particle-like regimes. Wave-particle duality is reinterpreted as a consequence of temporal incompatibility: even minimal vibrational interference introduces relational time structures incompatible with the photon’s null proper time. The framework provides a complete reconstruction of the double-slit experiment from first principles and predicts upstream coherence effects. It extends naturally to black-hole horizons, where extreme vibrational interference triggers active decompositional dynamics. Quantum states are decomposed and redistributed across compatible layers according to a Coherence Redistribution Principle. Black holes are interpreted as cosmic cleaning and recombination nodes within the primordial vibrational substrate. All predictions are in principle falsifiable through precision interferometric and gravitational-wave observations.
This paper presents Vibrational Quantum Theory (VQT), a unified framework in which quantum behavior and gravitational phenomena emerge from the vibrational dynamics of a primordial string-like substrate. Information is understood not as primitive computational bits, but as relational patterns arising from interference, energy exchange, and redistribution among fundamental excitations. The theory introduces a Local Vibrational Field whose gradients shape spatial probability distributions, and an Internal Vibrational Encoding that governs the transition between wave-like and particle-like regimes. Wave-particle duality is reinterpreted as a consequence of temporal incompatibility: even minimal vibrational interference introduces relational time structures incompatible with the photon’s null proper time. The framework provides a complete reconstruction of the double-slit experiment from first principles and predicts upstream coherence effects. It extends naturally to black-hole horizons, where extreme vibrational interference triggers active decompositional dynamics. Quantum states are decomposed and redistributed across compatible layers according to a Coherence Redistribution Principle. Black holes are interpreted as cosmic cleaning and recombination nodes within the primordial vibrational substrate. All predictions are in principle falsifiable through precision interferometric and gravitational-wave observations.
IFT-ISE is a unified quantum–informational framework in which wave–particle behavior emerges from the interaction between informational structure, geometry, and time. The model extends the standard photonic Hilbert space by introducing an internal informational subsystem, not as a new force or interaction, but as a generator of relational constraints. The framework combines Informational Field Theory (IFT)—where spatial probability distributions arise from local informational entropy gradients—with Internal State Encoding (ISE), a discrete informational basis governing the accessibility of particle-like states. Within this perspective, informational asymmetry does not induce collapse through measurement, but generates relational time and state distinguishability within the local informational geometry. Since photons possess no proper time, the emergence of even minimal relational time renders wave-like propagation incompatible, enforcing particle-like behavior without invoking observer-induced collapse. This reinterpretation provides a physically transparent explanation for the extreme sensitivity of the double-slit experiment to infinitesimal which-path information. IFT-ISE reconstructs the double-slit experiment, predicts upstream coherence modulation prior to slit interaction, and extends naturally to black-hole horizons, where extreme informational geometry suppresses temporal accessibility and amplifies informational structure. Mathematical derivations, conceptual diagrams, and experimentally testable predictions are provided, offering a coherent informational foundation for quantum optical and gravitational boundary phenomena.
This research paper develops the formal conceptual and mathematical foundation for Vibrational Information Field Theory (VIFT). The theory posits that the most primitive constituents of reality are not particles or empty spacetime, but specific vibrational modes of an underlying universal Information Field (IF). Key Theoretical Contributions:1. Ontological Shift: Formulating quantum superposition as the absence of informational exchange and defining "measurement" as the interaction-mediated transfer of information between localized vibrational modes.2. Relativistic Integration: Proposing that relativistic time dilation directly modulates the rate of information flow, thereby influencing the coherence lifetimes of quantum systems.3. Black Hole Interior Dynamics: Modelling black holes as regions of "frozen" or non-oscillatory information where vibration amplitude tends to zero, offering a novel perspective on the information paradox.4. Cosmological Origin: Treating the Big Bang as a primordial excitation of the Information Field that seeded all stable vibrational modes (matter and energy).5. VIFT-SVG Synthesis: Connecting the framework to the author's prior work on Spacetime Vortex Gravity, where the rotational degrees of freedom in the vacuum are treated as specific informational vortices. The paper provides candidate field equations, variational principles, and phenomenological predictions, alongside concrete experimental proposals involving ion-storage rings and analogue-horizon BEC setups to test the limits of informational decoherence.
Abstract The wave-particle duality, delayed-choice paradox, quantum entanglement, black hole information paradox, and cosmic holography in quantum mechanics have long been regarded as independent fundamental puzzles. Based on a discrete geometric framework (Cantor set topological gluing and recursive folding), this paper derives their unified origin——higher-order noise correlations. We demonstrate that the higher-order correlations of defect points, , constitute a universal geometric carrier of information encoding: In double-slit interference, it naturally resolves the "future determining the past" paradox of delayed-choice experiments, reveals entangled states as macroscopic manifestations of inseparable higher-order correlations, and leaves behind an entanglement residue --- under strong measurement; on the black hole event horizon, it forms a classical-quantum duality with the Heisenberg algebra of soft hair, providing a microscopic statistical interpretation for the Bekenstein-Hawking entropy and naturally truncating the infinite soft degrees of freedom; in the holographic universe, it serves as the boundary condition for generational memory, enabling information transfer across generations through bounce-surface freezing. This unified framework places quantum phenomena, black hole thermodynamics, and cosmic evolution under the same geometric language, proposes four core predictions testable through tabletop experiments, and establishes the quantitative relationship between higher-order correlation entropy and horizon area . If the predictions are confirmed, it will establish discrete geometry as the underlying origin of quantum information and provide the first empirically testable physical support for the holographic universe. 摘要 量子力学中的波粒二象性、延迟选择悖论、量子纠缠、黑洞信息悖论与宇宙全息性,长期被视为相互独立的根本谜题。本文基于离散几何框架(康托尔集拓扑粘合与递归折叠),推导了它们的统一根源——高阶噪声关联。我们论证,瑕疵点的高阶关联 构成信息编码的普适几何载体:在双缝干涉中,它自然消解延迟选择实验的“未来决定过去”悖论,揭示纠缠态为不可分离的高阶关联的宏观表现,并在强测量下留下纠缠残留量 —;在黑洞视界上,它与软毛发的海森堡代数构成经典-量子对偶,为贝肯斯坦-霍金熵 提供微观统计诠释并自然截断无穷多软自由度;在全息宇宙中,它作为世代记忆的边界条件,通过反弹面冻结实现信息跨代传递。这一统一框架将量子现象、黑洞热力学与宇宙演化置于同一几何语言之下,提出四项可通过桌面实验检验的核心预言,并建立了高阶关联熵与视界面积的定量关系 。若预言被证实,将确立离散几何为量子信息的底层起源,为全息宇宙提供首个可实证的物理支撑。
We present a theoretical framework in which the interference pattern of the double-slit experiment emerges from a variational principle defined on an informational manifold rather than from postulated wave–particle duality. Within the Viscous Time Theory (VTT) framework, physical systems are described by identity-preserving trajectories that minimize an informational latency functional. The competition between two permissible trajectories under finite latency produces a coherent term analogous to an interference phase, without assuming a physical wave or pre-existing superposition. The resulting probability distribution reduces to the standard double-slit formula in the limit of uniform latency and recovers the disappearance of interference under which-way detection as a breakdown of coherent identity. The model introduces a gradient of informational awareness that predicts a localized collapse event associated with a tensor activation reflecting the transition to a single-path regime. We propose an experimental protocol combining single-photon interference with EEG recordings to test whether early variations in the awareness gradient correlate with the collapse of coherence. We further report a model-based validation using a synchronized double-slit and EEG-inspired signal protocol, in which analytically constructed waveforms—consistent with published spectral properties—are used to illustrate threshold-driven collapse behavior, finite-time collapse dynamics, and improved predictive performance of the VTT model compared to standard decoherence-based descriptions. The framework thus provides a testable and experimentally supported informational interpretation of quantum interference, suggesting that wave–particle transitions correspond to a reorganization of identity in viscous informational time rather than a change in physical ontology.
This paper extends Vibrational Quantum Theory (VQT) to the macroscopic regime by formalizing the concept of "macroscopic decoherence stand-by". We demonstrate that an isolated macroscopic system (e.g., a room with no observers or measuring devices) does not require continuous environmental monitoring or external computational rendering to maintain a well-defined state. Instead, in the absence of local vibrational interactions, the system naturally enters a compressed informational regime characterized by null relational time and non-local propagation. The transition to classical, localized behavior occurs exclusively upon the establishment of a cross-entanglement channel with an external observer. The work clarifies the boundary conditions, thermodynamic implications, and geometric interpretation of this phenomenon, distinguishing it from both standard quantum decoherence and simulation-based hypotheses. This framework offers a physical mechanism for macroscopic latency and provides a foundation for further exploration of observer-dependent emergence in quantum and informational theories. Keywords: Vibrational Quantum Theory, Macroscopic Decoherence, Informational Compression, Relational Time, Quantum Stand-by, Stratified Superposition, Coherence Redistribution Additional notes: Independent theoretical work. No new experimental data. Builds upon previous papers in the VQT series.
This preprint presents a physical reinterpretation of quantum phenomena within the framework of Relativistic Coherent Vacuum Gravity Theory (rCVGT). The theory models the vacuum as a structured medium described by four dynamical fields governing coherence, flow, and time rate. Quantum entanglement, interference, and measurement are interpreted as manifestations of vacuum-coherence dynamics rather than abstract postulates. Nonlocal correlations arise from extended vacuum coherence without superluminal signaling or superdeterminism. Measurement-induced collapse corresponds to localized vacuum decoherence driven by macroscopic interactions. The double-slit experiment is explained through vacuum-mediated coherent propagation. The framework preserves the empirical predictions of quantum mechanics while providing a physical mechanism consistent with relativistic causality. rCVGT unifies quantum and gravitational behavior by assigning physical structure to the vacuum. The work offers testable predictions and experimental pathways. It aims to contribute to quantum foundations and the reconciliation of quantum mechanics with relativity.