What question did this study set out to answer?

This research aims to explore the geometric and topological origins of quantization and stability in atomic structures within the Methane Metauniverse.

January 18, 2026Open Access

Phase Closure as the Origin of Quantization, Spin, and Stability in the Methane Metauniverse (MMU)

Key Points

This research aims to explore the geometric and topological origins of quantization and stability in atomic structures within the Methane Metauniverse.
Developed a geometric and topological framework for atomic and nuclear structures.
Formulated the MMU field equation based on closed loops.
Utilized a canon-constrained, auditable methodology with explicit assumptions.
Demonstrated that quantization and spin-1/2 emerge from global phase closure.
Explained electron–proton binding as a phase-closed configuration contributing to atomic stability.
Clarified the role of spinorial topology in the origin of discrete spectra.

Abstract

This article presents a geometric and topological framework for atomic and nuclear structure based on the Methane Metauniverse (MMU). Physical systems are described as closed standing wave modes supported by a tetrahedral UR-cell geometry. Quantization, spin-1/2, orbital structure, atomic binding, and nuclear stability emerge as necessary consequences of global phase closure rather than as independent postulates. Electron–proton binding is explained as a joint phase-closed configuration, providing a structural reason for atomic stability. The MMU field equation is formulated on closed loops, clarifying the origin of discrete spectra and the role of spinorial topology. All results are developed within a canon-constrained, auditable methodology with explicit assumptions and reproducible structure.

Phase Closure as the Origin of Quantization, Spin, and Stability in the Methane Metauniverse (MMU)

Key Points

Abstract

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