Scientific Hypothesis Proposal: Inertial Resonance and the 70% Phase Disruption in the 1151-Year Solar System Planetary Cycle

This interdisciplinary scientific proposal introduces a novel helio-geophysical framework investigating the long-term systemic dynamics of the Solar System. Recent astrophysical computations models have identified an 1151-year universal quasi-commensurability (orbital alignment) cycle affecting all seven classical planets simultaneously (Baiget Orts, 2026). This paper proposes that the grand planetary conjunction (the 0% phase) acts as a major helio-geophysical impulse inducing systemic cumulative stress via barycentric torque effects on the solar dynamo and the tachocline. Rather than implying strict linear determinism, this model demonstrates through empirical Holocene paleoclimatic and archeological data that the primary terrestrial impacts—characterized by rapid climate transitions, heightened volcanism, and civilizational collapses—culminate non-linearly near the 70% threshold (~806 years post-alignment) due to phase synchronization mechanisms in coupled geodynamic systems.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-16
DOI
https://doi.org/10.5281/zenodo.23415888
Primary Topic
Solar and Space Plasma Dynamics
Type
preprint
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preprint

Scientific Hypothesis Proposal: Inertial Resonance and the 70% Phase Disruption in the 1151-Year Solar System Planetary Cycle

Ivars Prūsis, AI Collaborator Large Language Model
Zenodo (CERN European Organization for Nuclear Research)
Solar and Space Plasma Dynamics
preprint

Scientific Hypothesis Proposal: Inertial Resonance and the 70% Phase Disruption in the 1151-Year Solar System Planetary Cycle

Ivars Prūsis, AI Collaborator Large Language Model
preprint en

Abstract

This interdisciplinary scientific proposal introduces a novel helio-geophysical framework investigating the long-term systemic dynamics of the Solar System. Recent astrophysical computations models have identified an 1151-year universal quasi-commensurability (orbital alignment) cycle affecting all seven classical planets simultaneously (Baiget Orts, 2026). This paper proposes that the grand planetary conjunction (the 0% phase) acts as a major helio-geophysical impulse inducing systemic cumulative stress via barycentric torque effects on the solar dynamo and the tachocline. Rather than implying strict linear determinism, this model demonstrates through empirical Holocene paleoclimatic and archeological data that the primary terrestrial impacts—characterized by rapid climate transitions, heightened volcanism, and civilizational collapses—culminate non-linearly near the 70% threshold (~806 years post-alignment) due to phase synchronization mechanisms in coupled geodynamic systems.

Zenodo (CERN European Organization for Nuclear Research)
Climate action
Solar and Space Plasma Dynamics
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