Temporal Convergence

Abstract

The Standard Model and ΛCDM cosmology are formally successful yet leave a specific cluster of structural facts unexplained: why space has exactly three dimensions, why there are exactly three generations of fermions, why particle masses take the values they do, why gravity resists unification with the other three interactions, why the universe contains far more matter than antimatter, and what dark matter and dark energy physically are. This paper presents a framework, Temporal Convergence, that proposes a common origin for this cluster of open questions. The framework's foundation is a single operation, differentiation, the event in which a configuration comes to exist or ceases to, driven by an irreducible asymmetry between a bounded ground state and an unbounded space of possible configurations. Differentiation that persists rather than collapsing is what the framework identifies with time itself, and its rate, denser where more relationships couple together, is what later sections read as mass, gravity, and the appearance of three-dimensional space. Physical structure is modeled as a constrained recursive oscillation built from this operation, subject to a minimum-closure requirement. We show that this requirement forces a minimum of three degrees of freedom for any stable, self-referential structure, consistent with the classical result that stable bound orbits require exactly three spatial dimensions (Ehrenfest, 1917), and we extend the same three-fold structure to the number of fermion generations. We derive two quantitative thresholds from the closure geometry alone, checked against measurement only afterward: a critical wavelength at exactly half the electron's Compton wavelength, and a critical energy of 1.022 MeV, the measured pair-production threshold. We present chronological depth, the identification of spatial distance with the differentiation interval between configurations, as the framework's central concept; a discrete compression-depth architecture for particle mass; and a direct physical identification of the quantum-mechanical wavefunction with the same oscillation's OFF-state, under which the double-slit pattern, the measurement problem, the delayed-choice quantum eraser, tunnelling, and the quantum Zeno effect all follow from one mechanism, with no observer-dependence and no retrocausation. We also give a fixed-rate-budget account of special-relativistic time dilation and length contraction, a domain-adaptive extension of Einstein's field equation that recovers quantum field theory and General Relativity exactly in their respective domains, and a reading of the Standard Model's seventeen fields as one field at seventeen coupling configurations, under which its nineteen free parameters become, in principle, nineteen outputs of one equation. A single, internally consistent mechanism is proposed for the matter–antimatter asymmetry, together with structural accounts of black-hole thermodynamics and information, dark matter, dark energy, and the Hubble tension. Every claim is labeled as established physics, reinterpretation, falsifiable prediction, or open formal problem, and quantitative failures are reported rather than omitted. The work matters because it offers a small number of sharply falsifiable predictions, testable with existing or near-term instruments, attached to a framework that is explicit about exactly which of its own claims remain unproven.