Tidal Triggering of Magnitude 7+ Earthquakes by Jupiter
E.W. Holt, Eric Newman

TL;DR
This study investigates the potential influence of planetary positions, especially Jupiter, on large earthquakes using statistical tests, revealing significant activity patterns linked to specific orbital configurations.
Contribution
It introduces a novel statistical approach to analyze the correlation between planetary positions and large earthquake occurrences, focusing on Jupiter's influence.
Findings
Significant M7+ earthquake activity correlates with Jupiter's inferior conjunction and 'preceding neap' positions.
Earthquake activity shows pulse-like increases and decreases around specific Sun-Observer-Target angles.
No clear correlation found between lunar cycle and large earthquake activity.
Abstract
This work uses a chi-squared test of independence to determine if days that include earthquakes greater than or equal to magnitude 7 (M7+) from 1960 to 2024 are truly independent of the position of Earth in its orbit around the sun. To this end, this study breaks up Earth's orbit into days offset on either side of two reference Earth-Sun-Planet orientations, or zero-points: opposition and inferior conjunction. A computer program is used to sample U.S.G.S. earthquake and N.A.S.A. Horizons ephemeris data for the last 64 years with the purpose of conducting 28,782 chi-squared tests-of-independence for all intervals (5 to 45 days) spanning the entirety of Earth's synodic period relative to these zero points for Jupiter, Venus, Saturn, and Mars. For Jupiter, 1,071 statistically significant intervals of M7+ activity are associated with two particular points: the inferior conjunction and what…
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Taxonomy
TopicsEarthquake Detection and Analysis · earthquake and tectonic studies · High-pressure geophysics and materials
