Is Gravity Truly What Einstein Said It Was —A Re-examination Based on Mach's Principle and the Global Inertial Vortex Force
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2026
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| _version_ | 1866901728508510208 |
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| author | Zhao, Xin |
| author_facet | Zhao, Xin |
| contents | <p>Abstract<br>What exactly is gravity? Newton described it as action at a distance, yet evaded the question of ”how it is transmitted”; Einstein interpreted it as spacetime curvature, dissolving the concept of force through geometric elegance. However, when we gaze at the anomalously high rotational velocities of stars at the outer edges of galaxies, look toward the Great Attractor in the direction of Virgo that drags hundreds of galaxies, and examine the anomalous patches in the Cosmic Microwave Background (CMB) radiation that cannot be explained by uniform expansion—a fundamental perplexity emerges: Is gravity truly what Einstein said it was?</p> <p><br>This paper attempts to introduce a distinct line of reasoning: on a cosmological scale, gravity may not be entirely depicted by spacetime curvature, but might instead be superimposed with a ”Global Inertial Vortex Force” effect generated by the combined motions of celestial bodies at all hierarchical levels. The Earth is surging through the universe at hundreds of kilometers per second, and the inertial pressure it excites may well be an unknown mechanical mechanism participating in binding all things to the Earth’s surface.</p> <p><br>This line of reasoning offers a new analytical perspective on two long-standing astronomical mysteries. Hoag’s Object—that mysterious galaxy possessing a nearly perfect spherical core and a blue young stellar ring, with a significantly dark, starless region between the core and the ring—this paper points out: its core is spherical and barely rotates, failing to produce the differential rotation required to drive spiral arms; it is being dragged in a near-straight line by a higher-level inertial field, and the inertial pressure differential pushes the peripheral matter backward, accumulating it into a ring. Its true three-dimensional structure should be conical (core in front, ring in the rear), which can be directly verified by future observations. The Great Attractor—were this colossal entity to suddenly collapse, its gravitational shockwave would distort the Milky Way, perturb the solar system, and alter Earth’s gravity. There is no isolated gravity in the universe; the fates of all celestial bodies are hierarchically coupled through the inertial field.</p> <p><br>This paper also points out a basic fact: due to current observational limitations, humanity cannot even precisely measure the exact mass of the Milky Way. The mass cornerstone upon which gravitational theory relies remains an unknown at the cosmological scale.</p> <p><br>This line of reasoning has no intention of negating Einstein. General Relativity is irreplaceable within the solar system. However, on a cosmological scale, our understanding of gravity may need to be re-examined. The essence of science is the pursuit of truth, not rigid adherence to existing paradigms. When fractures appear between observational facts and old images, do we have the courage to ask again—what exactly is gravity?</p> <p><br>In the future, the conical verification of Hoag’s Object’s 3D structure, statistical consistency in the direction of the cosmic dark flow, and the temperature gradient at the edge of the observable universe—these testable predictions will ultimately provide answers to this century-old inquiry.</p> <p><br>Keywords: Global Inertial Vortex Force; Mach’s Principle; Nature of Gravity; Central White Hole; Dark Matter; Hoag’s Object; Hierarchical Cosmic Motions</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_19534148 |
| institution | Zenodo |
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| publishDate | 2026 |
| publisher | Zenodo |
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| spellingShingle | Is Gravity Truly What Einstein Said It Was —A Re-examination Based on Mach's Principle and the Global Inertial Vortex Force Zhao, Xin Global Inertial Vortex Force Mach's Principle Nature of Gravity Central White Hole Dark matter Hoag's Object Hierarchical Cosmic Motions <p>Abstract<br>What exactly is gravity? Newton described it as action at a distance, yet evaded the question of ”how it is transmitted”; Einstein interpreted it as spacetime curvature, dissolving the concept of force through geometric elegance. However, when we gaze at the anomalously high rotational velocities of stars at the outer edges of galaxies, look toward the Great Attractor in the direction of Virgo that drags hundreds of galaxies, and examine the anomalous patches in the Cosmic Microwave Background (CMB) radiation that cannot be explained by uniform expansion—a fundamental perplexity emerges: Is gravity truly what Einstein said it was?</p> <p><br>This paper attempts to introduce a distinct line of reasoning: on a cosmological scale, gravity may not be entirely depicted by spacetime curvature, but might instead be superimposed with a ”Global Inertial Vortex Force” effect generated by the combined motions of celestial bodies at all hierarchical levels. The Earth is surging through the universe at hundreds of kilometers per second, and the inertial pressure it excites may well be an unknown mechanical mechanism participating in binding all things to the Earth’s surface.</p> <p><br>This line of reasoning offers a new analytical perspective on two long-standing astronomical mysteries. Hoag’s Object—that mysterious galaxy possessing a nearly perfect spherical core and a blue young stellar ring, with a significantly dark, starless region between the core and the ring—this paper points out: its core is spherical and barely rotates, failing to produce the differential rotation required to drive spiral arms; it is being dragged in a near-straight line by a higher-level inertial field, and the inertial pressure differential pushes the peripheral matter backward, accumulating it into a ring. Its true three-dimensional structure should be conical (core in front, ring in the rear), which can be directly verified by future observations. The Great Attractor—were this colossal entity to suddenly collapse, its gravitational shockwave would distort the Milky Way, perturb the solar system, and alter Earth’s gravity. There is no isolated gravity in the universe; the fates of all celestial bodies are hierarchically coupled through the inertial field.</p> <p><br>This paper also points out a basic fact: due to current observational limitations, humanity cannot even precisely measure the exact mass of the Milky Way. The mass cornerstone upon which gravitational theory relies remains an unknown at the cosmological scale.</p> <p><br>This line of reasoning has no intention of negating Einstein. General Relativity is irreplaceable within the solar system. However, on a cosmological scale, our understanding of gravity may need to be re-examined. The essence of science is the pursuit of truth, not rigid adherence to existing paradigms. When fractures appear between observational facts and old images, do we have the courage to ask again—what exactly is gravity?</p> <p><br>In the future, the conical verification of Hoag’s Object’s 3D structure, statistical consistency in the direction of the cosmic dark flow, and the temperature gradient at the edge of the observable universe—these testable predictions will ultimately provide answers to this century-old inquiry.</p> <p><br>Keywords: Global Inertial Vortex Force; Mach’s Principle; Nature of Gravity; Central White Hole; Dark Matter; Hoag’s Object; Hierarchical Cosmic Motions</p> |
| title | Is Gravity Truly What Einstein Said It Was —A Re-examination Based on Mach's Principle and the Global Inertial Vortex Force |
| topic | Global Inertial Vortex Force Mach's Principle Nature of Gravity Central White Hole Dark matter Hoag's Object Hierarchical Cosmic Motions |
| url | https://doi.org/10.5281/zenodo.19534148 |