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Main Author: huang, tsung jen
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Published: Zenodo 2026
Online Access:https://doi.org/10.5281/zenodo.18807555
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author huang, tsung jen
author_facet huang, tsung jen
contents <p>The discrepancy between observed gravitational lensing ellipticities and the predictions of General Relativity (GR) is conventionally resolved by invoking complex, unobserved dark matter halos. This paper introduces the HTJ Conjecture, a geometric alternative that extends the 4D Minkowski manifold into a 6D spacetime featuring three spatial and three temporal dimensions (3S+3T). Within this framework, temporal vectors experience anisotropic dilation in high-gravity environments, generating a "Temporal Hill Potential." Furthermore, we propose that at the Planck scale (<span>$10^{44}$</span> Hz), spacetime quantization is governed by a Prime Gain Effect (PGE), where resonance modes corresponding to prime numbers constructively interfere. We derive the modified null-geodesic equations and demonstrate how the gradient of the Temporal Hill Potential provides a natural geometric correction term (<span>$\Delta \epsilon$</span>) for asymmetric lensing, offering a testable prediction for upcoming high-resolution cosmological surveys.</p>
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publishDate 2026
publisher Zenodo
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spellingShingle The HTJ Conjecture: Ellipticity Correction in Asymmetric Gravitational Lensing via 6D Spacetime and Prime Gain Resonance
huang, tsung jen
<p>The discrepancy between observed gravitational lensing ellipticities and the predictions of General Relativity (GR) is conventionally resolved by invoking complex, unobserved dark matter halos. This paper introduces the HTJ Conjecture, a geometric alternative that extends the 4D Minkowski manifold into a 6D spacetime featuring three spatial and three temporal dimensions (3S+3T). Within this framework, temporal vectors experience anisotropic dilation in high-gravity environments, generating a "Temporal Hill Potential." Furthermore, we propose that at the Planck scale (<span>$10^{44}$</span> Hz), spacetime quantization is governed by a Prime Gain Effect (PGE), where resonance modes corresponding to prime numbers constructively interfere. We derive the modified null-geodesic equations and demonstrate how the gradient of the Temporal Hill Potential provides a natural geometric correction term (<span>$\Delta \epsilon$</span>) for asymmetric lensing, offering a testable prediction for upcoming high-resolution cosmological surveys.</p>
title The HTJ Conjecture: Ellipticity Correction in Asymmetric Gravitational Lensing via 6D Spacetime and Prime Gain Resonance
url https://doi.org/10.5281/zenodo.18807555