Revisiting the Phaethon Hypothesis: Structural Evidence from Orbital Refractive Dynamics

Title: Revisiting the Phaethon Hypothesis: Structural Evidence from Orbital Refractive Dynamics This paper presents a comprehensive re-evaluation of the Phaethon Hypothesis—the theory that a now-destroyed fifth planet once existed between Mars and Jupiter. While classical models explain the asteroid belt as leftover debris from the solar system’s formation, we propose a new approach based on the concept of an effective orbital refractive index ng=cT/Rn_g = cT/Rng=cT/R, derived from each planet’s orbital period and radius. Through differential analysis of ngn_gng, we uncover structural discontinuities in its first, second, and third derivatives. A pronounced anomaly between Mars and Jupiter suggests a physical and gravitational rupture in the solar system’s architecture. This leads us to propose that the asteroid belt represents not a failed formation zone, but the fragmented remains of a planetary body—Phaethon. Building on this, we introduce a novel theoretical framework: Will Field Dynamics, in which third-order spatial and temporal derivatives represent the “will” of space and time. We formulate a Lagrangian for these will fields and derive a sixth-order wave equation describing the propagation of gravitational intent. This perspective offers a geometric reinterpretation of spacetime curvature and gravitational continuity. The work integrates orbital mechanics, field theory, and philosophical insights into a new model of solar system structure—one that recognizes discontinuity not just in mass, but in the transmission of gravitational influence itself.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-05-25
DOI
https://doi.org/10.5281/zenodo.15510882
Primary Topic
Astro and Planetary Science
Type
article
Field-Weighted Citation Impact
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article

Revisiting the Phaethon Hypothesis: Structural Evidence from Orbital Refractive Dynamics

Zenodo (CERN European Organization for Nuclear Research)
Astro and Planetary Science
article

Revisiting the Phaethon Hypothesis: Structural Evidence from Orbital Refractive Dynamics

article en

Abstract

Title: Revisiting the Phaethon Hypothesis: Structural Evidence from Orbital Refractive Dynamics This paper presents a comprehensive re-evaluation of the Phaethon Hypothesis—the theory that a now-destroyed fifth planet once existed between Mars and Jupiter. While classical models explain the asteroid belt as leftover debris from the solar system’s formation, we propose a new approach based on the concept of an effective orbital refractive index ng=cT/Rn_g = cT/Rng=cT/R, derived from each planet’s orbital period and radius. Through differential analysis of ngn_gng, we uncover structural discontinuities in its first, second, and third derivatives. A pronounced anomaly between Mars and Jupiter suggests a physical and gravitational rupture in the solar system’s architecture. This leads us to propose that the asteroid belt represents not a failed formation zone, but the fragmented remains of a planetary body—Phaethon. Building on this, we introduce a novel theoretical framework: Will Field Dynamics, in which third-order spatial and temporal derivatives represent the “will” of space and time. We formulate a Lagrangian for these will fields and derive a sixth-order wave equation describing the propagation of gravitational intent. This perspective offers a geometric reinterpretation of spacetime curvature and gravitational continuity. The work integrates orbital mechanics, field theory, and philosophical insights into a new model of solar system structure—one that recognizes discontinuity not just in mass, but in the transmission of gravitational influence itself.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 59%
Astro and Planetary Science
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