Time–Space Oscillations (TSO) Computing. Theoretical framework and discussion This work introduces a speculative yet mathematically grounded computational framework based on Time–Space Oscillations (TSO). Departing from classical Turing machines and quantum gate-based models, TSO computation encodes information in continuous oscillatory degrees of freedom—phases, amplitudes, and recursive analytic continuations—rather than discrete logic states or qubits. Computation is realized through recursive Cauchy integral continuation in a complex analytic phase space, generating a multiversal ensemble of dynamically coupled branches. Within this ensemble, solutions emerge as invariant, stable eigenstates selected through interference, phase coherence, and energy–phase dynamics. Fourier structure is intrinsic to the model: harmonic content is accessed directly via oscillator dynamics, eliminating the need for explicit iterative transforms. The framework replaces time-based algorithmic complexity with an alternative notion of existence complexity, in which problems are solved by the presence of invariant-consistent branches rather than by sequential evaluation. Measurement acts as projection or stabilization rather than computation itself. Beyond computational implications, the paper explores conceptual connections to multiverse interpretations of physics, analytic continuation as a physical process, and the possibility that existence itself may be interpreted as a global fixed point of recursive oscillatory dynamics. While speculative, the TSO model offers a unified perspective bridging computation, physics, and philosophy, and suggests new directions for non-Turing and non-quantum computational paradigms. For newcomers, a structured overview of the foundational TSO papers is available in “Time Space Oscillations. Introduction papers” (Zenodo DOI: 10.5281/zenodo.1767154). It guides readers through the core principles of TSO—Time dilation and Gravity equivalence, TSO & EM, TSO & QM—and shows how the present work fits into the broader framework. For an overview of related work and publications, visit:https://ndl1971.github.io/time-space-oscillations/
Time–Space Oscillations (TSO) Computing. Theoretical framework and discussion This work introduces a speculative yet mathematically grounded computational framework based on Time–Space Oscillations (TSO). Departing from classical Turing machines and quantum gate-based models, TSO computation encodes information in continuous oscillatory degrees of freedom—phases, amplitudes, and recursive analytic continuations—rather than discrete logic states or qubits. Computation is realized through recursive Cauchy integral continuation in a complex analytic phase space, generating a multiversal ensemble of dynamically coupled branches. Within this ensemble, solutions emerge as invariant, stable eigenstates selected through interference, phase coherence, and energy–phase dynamics. Fourier structure is intrinsic to the model: harmonic content is accessed directly via oscillator dynamics, eliminating the need for explicit iterative transforms. The framework replaces time-based algorithmic complexity with an alternative notion of existence complexity, in which problems are solved by the presence of invariant-consistent branches rather than by sequential evaluation. Measurement acts as projection or stabilization rather than computation itself. Beyond computational implications, the paper explores conceptual connections to multiverse interpretations of physics, analytic continuation as a physical process, and the possibility that existence itself may be interpreted as a global fixed point of recursive oscillatory dynamics. While speculative, the TSO model offers a unified perspective bridging computation, physics, and philosophy, and suggests new directions for non-Turing and non-quantum computational paradigms. For newcomers, a structured overview of the foundational TSO papers is available in “Time Space Oscillations. Introduction papers” (Zenodo DOI: 10.5281/zenodo.1767154). It guides readers through the core principles of TSO—Time dilation and Gravity equivalence, TSO & EM, TSO & QM—and shows how the present work fits into the broader framework. For an overview of related work and publications, visit:https://ndl1971.github.io/time-space-oscillations/
Description:This work introduces a novel framework for understanding the intrinsic dynamics of elementary particles through Time–Space Oscillation (TSO), a geometric-oscillatory approach in which particles are modeled as intrinsic oscillators embedded in locally curved time–space submanifolds. We explore the mathematical boundary between conventional quantum mechanics and richer, multi-valued particle dynamics, showing that while certain TSO phenomena are compatible with standard Hilbert-space representations, essential features—such as nonlinear mode coupling, multi-slice evolution, and curvature-induced phase thickening—require a more general formalism: the Calculus of Element-Generated Sets (CEGS). By connecting TSO dynamics to CEGS, we provide: Explicit examples of Hilbert-compatible vs non-Hilbert TSO states A causal interpretation of quantum measurement via driven oscillator dynamics A comparison with standard quantum interpretations, including Many-Worlds, Copenhagen, and Bohmian mechanics This article offers both a mathematical foundation and a conceptual lens to reconcile conventional quantum theory with the richer dynamics implied by TSO, opening new avenues for understanding particle behavior beyond standard linear frameworks. For readers new to the Time–Space Oscillation framework, a structured overview of the four foundational TSO conceptual papers is available in “Time Space Oscillations. Introduction papers” (Zenodo DOI: 10.5281/zenodo.1767154). This companion document summarises the core principles of TSO —TSO concept, Time dilation and Gravity equivalence, TSO & EM, TSO & QM—and provides direct links to the full manuscripts. It serves as the recommended starting point for understanding how the present photon model fits into the broader TSO structure. And on CEGS Zenodo DOI: 10.5281/zenodo.16904171. For an overview of related work and publications, visit:https://ndl1971.github.io/time-space-oscillations/
TSO: Rescuing Schrödinger’s Cat Quantum paradoxes like Schrödinger’s Cat have long challenged our understanding of reality, suggesting worlds where particles—and even cats—exist simultaneously alive and dead. This work introduces the framework of Time–Space Oscillators (TSO), which models particles as six-dimensional helical oscillators embedded in a multiversal 6D phase space. Generalising its structure using recursive Cauchy integrals and analytic continuation, we show how the apparent multiplicity of outcomes arises naturally from oscillatory structure rather than ontological duplication, providing a geometric resolution to quantum paradoxes and a pathway for the emergence of classicality without external decoherence. Building on prior work on TSO dimensionality constructions (https://doi.org/10.5281/zenodo.17849427), Rescuing Schrödinger’s Cat refines the vision of quantum branching, emphasizing particle singularity while capturing the richness of probabilistic observation. This approach bridges foundational physics, visualizable geometry, and analytic recursion, offering a fresh lens on the quantum–classical boundary and retrocausal phenomena. For newcomers, a structured overview of the foundational TSO papers is available in “Time Space Oscillations. Introduction papers” (Zenodo DOI: 10.5281/zenodo.1767154). It guides readers through the core principles of TSO—Time dilation and Gravity equivalence, TSO & EM, TSO & QM—and shows how the present work fits into the broader framework. For an overview of related work and publications, visit:https://ndl1971.github.io/time-space-oscillations/ Version 0.91 Corrected conjugate relationship Z_2+1/Z_2 instead of Z_2 in Cauchy recursion. It does not impact the result or overall message.
Time--Space Oscillations (TSO): A Comprehensive Overview of the Research Corpus The Time--Space Oscillations (TSO) framework offers a deterministic and geometric perspective on physics, unifying classical mechanics, quantum phenomena, and relativistic effects through the phase geometry of time and space. By modeling particles and fields as intertwined temporal–spatial oscillations, TSO provides intuitive explanations for entanglement, inertia, wave–particle duality, and the emergence of forces. This document presents a structured overview of the TSO research corpus, summarizing approximately 20 published papers. It highlights key conceptual foundations, theoretical developments, and explorative applications, while summarising and clarifying the various temporal–spatial wave function representations and Cauchy integral formulations employed throughout the articles. In addition, the overview offers guidance for navigating the full corpus and understanding interrelations among the papers, enabling readers to approach TSO research systematically. By presenting both the foundational principles and advanced structures in a coherent manner, this overview serves as a roadmap for further theoretical exploration and applied research within the TSO framework. Version Updates: 0.93 Replaced Version specific DOIs &Links with Generic DOIs 0.92 Reverted to original version = 0.9. For an overview of related work and publications, visit:https://ndl1971.github.io/time-space-oscillations/ For questions, discussion, or collaboration regarding this work, please see ORCID profile: 0009-0007-4818-4485 https://orcid.org/ 0009-0007-4818-4485
This work introduces Time–Space Oscillations (TSO), a deterministic geometric framework that reinterprets fundamental quantum phenomena as natural consequences of oscillatory structures in complex spacetime. Unlike standard quantum mechanics, which is probabilistic and incomplete, TSO provides a complete underlying phase geometry from which uncertainty, quantisation, entanglement, zero-point energy, path integrals, and interference phenomena emerge naturally. This Version presents the framework as a conceptual and structural exploration intended to stimulate discussion and critical engagement. Readers are invited to explore how classical deterministic oscillations can underpin observed quantum behavior, bridging the gap between geometric intuition and the apparent probabilistic rules of the quantum world. This article with its preceding articles on TSO lays the foundation for a future monograph that will consolidate the full theory in a single work.This article, together with the preceding works — Time–Space Oscillations: A Geometric and Deterministic Approach to Relativistic and Quantum Phenomena (DOI: 10.5281/zenodo.17534735), Time Dilation and the Nature of Gravitational and Inertial Forces (DOI: 10.5281/zenodo.17543060), and Time–Space Oscillations and Electromagnetics (DOI: 10.5281/zenodo.17591326) — provides a comprehensive introduction to the TSO model and its deterministic approach to quantum mechanics. This introduction work on TSO is part of the following key works: Time–Space Oscillations: A Geometric and Deterministic Approach to Relativistic and Quantum PhenomenaZenodo DOI: 10.5281/zenodo.17534734The foundational article introducing the TSO framework and its applications to both relativistic and quantum phenomena. Time Dilation and the Nature of Gravitational and Inertial ForcesZenodo DOI: 10.5281/zenodo.17543059Explores the TSO perspective on time dilation and the interplay of inertial and gravitational forces. Time–Space Oscillations and ElectromagneticsZenodo DOI: 10.5281/zenodo.17591325Applies the TSO model to electromagnetic phenomena, revealing novel interpretations of wave propagation and field interactions. Time–Space Oscillations and Quantum Mechanics Zenodo DOI: 10.5281/zenodo.17670668Extends TSO to encompass quantum mechanical principles, including Heisenberg uncertainty, Schrödinger dynamics, path integrals, entanglement, zero-point energy, and the Quantum Zeno effect. For an overview of related work and publications, visit:https://ndl1971.github.io/time-space-oscillations/ Version 0.92 Corrected, mainly section 17. Incomplete normalisation descriptions have been corrected. V and H or E and B of the observer need normalisation through observer E and B. Which is a remark to the reader too. TSO oscillations may become nonoscillative images and patterns after normalisation/projection. Version 0.91 Corrected w_tso_base frequency in: 7.1 & 8 which scales linearly with mass and conform time dilation when accumulated particles arise.
TSO: Fermion Scattering and Compton Energy Redistribution Explained by Temporal Phase We present the Time–Space Oscillations (TSO) framework, a unified conceptual model in which spatial directions, momentum, and angular momentum emerge from the relational structure of intrinsic temporal helices. Classical mechanics, including SO(3) rotational symmetry, billiard-ball scattering, and Hamilton–Jacobi dynamics, arise naturally in the high-frequency, short-interaction limit. By extending TSO to include spinor components, fermionic behavior is recovered, including exchange antisymmetry and Pauli exclusion. Applied to photon–fermion interactions, TSO provides a mechanism for energy and momentum redistribution through phase-gradient realignment, reproducing standard Compton scattering results and quantum electrodynamics predictions. TSO functions as an interpretational completion of quantum mechanics and QED, clarifying the emergence of momentum, spin, and probabilistic behavior, while remaining fully consistent with experimental observations. For newcomers, a structured overview of the foundational TSO papers is available in “Time Space Oscillations. Introduction papers” (Zenodo DOI: 10.5281/zenodo.1767154). It guides readers through the core principles of TSO—Time dilation and Gravity equivalence, TSO & EM, TSO & QM—and shows how the present work fits into the broader framework. For an overview of related work and publications, visit:https://ndl1971.github.io/time-space-oscillations/
This work further develops the Time–Space Oscillation (TSO) framework as a fully mechanistic alternative to the quantum-mechanical collapse postulate.In this approach, every elementary entity is modeled as an intrinsic time–space harmonic oscillator whose internal frequency encodes its inertial mass via the Compton relation. Measurement is reinterpreted as a phase-synchronization process between the system and the apparatus, resulting in decoherence and apparent state selection through dynamical alignment of TSO structures, rather than a fundamental discontinuity. A key insight of the theory is that a quantum system initially possesses an infinite-dimensional parameter ensemble defined over a looping time–space manifold. When coupled to a detector, this ensemble is rapidly reduced to a sharply localized set of harmonically compatible solutions—a process that naturally explains parameter binding, collapse-like behavior, and detector eigenstate selection. The TSO framework further provides a local and geometry-based explanation of entanglement. What appear as multiple separated particles in Euclidean space emerge from a single intrinsic oscillator mapped into the observer’s coordinates through non-Euclidean time–space transformations. As a result, phase correlations persist without requiring nonlocal influences or superluminal signalling. The article outlines testable predictions, including curvature-dependent decoherence times, phase-distribution narrowing, and controlled decay of entanglement under artificial TSO curvature perturbations. Together, these results suggest new experimental pathways for probing the deep structure of time–space, intrinsic oscillations, and the geometric origin of quantum behavior. For readers new to the Time–Space Oscillation framework, a structured overview of the four foundational TSO conceptual papers is available in “Time Space Oscillations. Introduction papers” (Zenodo DOI: 10.5281/zenodo.1767154). This companion document summarises the core principles of TSO —TSO concept, Time dilation and Gravity equivalence, TSO & EM, TSO & QM—and provides direct links to the full manuscripts. It serves as the recommended starting point for understanding how the present photon model fits into the broader TSO structure.