We examine a minimal helical ansatz for microscopic spatial structure in which a primitive transverse radius is calibrated from the measured gravitational constant and the helix shape is subsequently fixed by a one-cycle phase-closure condition. The construction originates in the broader Emergent Frame (TEF) proposal, which treats spacetime as an emergent physical entity rather than a structureless pre-existing background, but the present paper is deliberately restricted to one concrete geometry and its quantitative consequence. Inspired mathematically by Euler’s representation of planar rotation, a spatial line is modeled as a right-handed helix with radius R, axial advance per radian a, and dimensionless pitch ratio q=a/R=tanβ. A gravity-geometry calibration relation, using G as an empirical input, gives RG=hG/(8πc3)=ℓP/2. The model then distinguishes the axial extension generated in one turn from the helical arc length traversed internally: the former sets the cycle energy through the gravitational line-tension scale c4/G, while the latter sets the cycle time. Requiring one complete primitive cycle to close its quantum phase, EcycTcyc/ℏ=2π, yields q1+q2=2/π, so that q≃0.556324, βG≃29.088∘, and sin2βG≃0.236348. No electroweak observable enters this calculation. The resulting angle is therefore proposed only as a candidate primitive geometric reference for weak mixing, not as a completed derivation of the Weinberg angle. Its numerical proximity to the observed running weak-mixing parameter is presented as the reason this otherwise speculative spacetime ansatz merits further quantitative investigation.
Research Context
This manuscript investigates whether a minimal microscopic helical spacetime ansatz can connect a gravity-calibrated geometric scale with an intrinsic angular quantity numerically close to the electroweak weak-mixing parameter.
The result is presented as a candidate geometric correspondence rather than a completed derivation of electroweak physics. Its purpose is to test whether the proposed spacetime geometry produces nontrivial quantitative structure worthy of further investigation.
Version 5.1 states the one-cycle condition explicitly as quantum phase closure and includes diagnostic discussions of calibration sensitivity, covariance and isotropy, and the field-theoretic matching required for the weak-mixing correspondence.
Publication Status
Version 5.1 is publicly archived on Zenodo as a preprint under the Creative Commons Attribution 4.0 International license. Its version-specific DOI is 10.5281/zenodo.22101000; the concept DOI for the complete version history is 10.5281/zenodo.22100999. Source, verification materials, and release metadata are maintained in the public TEF research repository. The manuscript has not undergone peer review.
Citation
Zenodo citation
Wu, X. (2026). A Helical Spacetime Ansatz Linking the Planck Scale and Electroweak Mixing (Version 5.1). Zenodo. https://doi.org/10.5281/zenodo.22101000
@misc{wu2026helical,
author = {Wu, Xiaodan},
title = {A Helical Spacetime Ansatz Linking the Planck Scale and Electroweak Mixing},
year = {2026},
publisher = {Zenodo},
version = {5.1},
doi = {10.5281/zenodo.22101000},
url = {https://doi.org/10.5281/zenodo.22101000}
}
Related context
From a Gravity-Calibrated Helix to a Conditional Fine-Structure Correspondence inherits the dimensionless helix parameter developed here and tests an explicitly conditional correspondence with the fine-structure constant.
The Emergent Frame Is Now Live is a first-person account of the project’s transition from private exploration to a public research program and the release of this preprint.
Version history
v5.1 — August 21, 2026
Public preprint release on Zenodo. Version DOI: 10.5281/zenodo.22101000.
v5 — August 20, 2026
Manuscript revision used as the basis for the archived v5.1 release.
v4 — August 16, 2026
Previous public working manuscript.
Xiaodan Wu. “A Helical Spacetime Ansatz Linking the Planck Scale and Electroweak Mixing.” TEF-2026-001, version v5.1, 2026-08-21. DOI: https://doi.org/10.5281/zenodo.22101000.
@unpublished{wu2026helical,
author = {Xiaodan Wu},
title = {A Helical Spacetime Ansatz Linking the Planck Scale and Electroweak Mixing},
year = {2026},
note = {TEF-2026-001, version v5.1},
url = {https://theemergentframe.org/papers/helical-spacetime-weak-mixing/},
doi = {10.5281/zenodo.22101000},
}