The Sedimentary Dynamics of the Rigid Bed: A Geo-Stationary Model of Solar System Formation and Polar Oscillations

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Authors: Abbas Arabi
Cited by: 0

Abstract

Abstract & Technical Description Framework: This document presents a radical shift from Newtonian orbital mechanics toward a Hydrodynamic-Vibrational Model of the solar system. The hypothesis posits that the "vacuum" of space is, in reality, a Rigid Bed (Matrix) with fluid-like properties capable of conducting high-energy vibrations and accumulating physical sediments. Core Mechanism: The solar system is redefined as a Stationary Wave Field where the Sun acts as the primary energy portal. The interaction between the "Solar Jet" and the Earth—the central stationary anchor (0,0)—creates a complex wake of energy. The planets located "after" Earth are not independent celestial bodies with autonomous gravitational fields; instead, they are identified as Crystalline Sediments or "Resistance Nodes" formed by the gradual accumulation of matter at the interference points of the rigid bed's vibrations. Key Structural Elements: Pre-Earth Filtration: Mercury and Venus act as vibrational frequency modulators, preparing the solar flow for interaction with the Earth's shield. Y-Axis Lunar Dynamics: The Moon is redefined as a vertical shuttle that creates transverse mixing, preventing linear sediment buildup and ensuring matrix stability. The Sedimentation Zone: The outer planets (Mars through Neptune) are analyzed as core-less, high-density nodes of the matrix itself, functioning as "cosmic breakwaters" that stabilize the central null point (Earth). Conclusion: This model offers an engineering-based explanation for the axial tilt of the Earth and the specific positioning of outer celestial bodies, suggesting that the solar system's architecture is a self-stabilizing mechanical structure designed to protect the integrity of the central stationary node within the Silicon Matrix.

Fields of Study & Subjects

Astro and Planetary Science Stellar planetary and galactic studies History and Developments in Astronomy

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
9 January 2026
Language
EN