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May 19, 20260 citationsOpen Access

A Theoretical Definition of Tensor-Based Cosmic Structure and Observational Alignment of Universal Axes

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SMShotaro MaruyamaInstitute for Advanced Medical Research

Key Points

  • This research aims to explore how tensor alignment can explain the flat rotation of spiral galaxies without dark matter while establishing a framework for predicting cosmic anisotropy.
  • Applied tensor-induced flat rotation equations to Milky Way and Andromeda Galaxy.
  • Defined statistical predictions for galactic rotations, black hole jet directions, and polarization distributions.
  • Implemented a pre-analysis framework for verifying cosmic anisotropic structures using astronomical datasets.
  • Demonstrated that flat rotational structures in galaxies can be modeled through tensor alignment.
  • Provided statistical predictions that align with observed directional anisotropies in the universe further verifying the theoretical implications.
  • Enhanced understanding of cosmic structure without additional mass components, supporting alternative models of galactic mechanics.

Abstract

The supplementary note titled “Application of the Tensor-Induced Flat Rotation Equation to the Milky Way and the Andromeda Galaxy” examines whether the observed flat rotational structures of spiral galaxies can be reproduced through spatial tensor alignment and vector transformation without introducing additional mass components such as dark matter. The study applies the same structural equation framework to both the Milky Way and the Andromeda Galaxy in order to investigate the possibility of a unified rotational mechanism. The supplementary note titled “Pre-Registered Predictions and Verification Plan for Cosmic Anisotropic Structure” presents a pre-analysis prediction framework for large-scale cosmic anisotropy. The document defines, prior to observational analysis, the predicted statistical symmetry relationships between galactic rotation directions, black hole jet orientations, polarization distributions, and the proposed T1 axis. The framework is intended to minimize post-hoc interpretation by fixing theoretical predictions and verification procedures before statistical analysis using publicly available astronomical datasets. Together, these supplementary studies extend the present theoretical framework toward quantitative verification of galactic rotational structure and large-scale directional anisotropy within the observable universe.

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Cite This Study

Shotaro Maruyama (2026) studied this question.

synapsesocial.com/papers/6a0bfe08166b51b53d3795dehttps://doi.org/10.5281/zenodo.20257685
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