Antipodal Bullet Theory: A Unified Mechanism for Large Igneous Provinces, Mass Extinctions and World-Class. Ore Deposits via Deep-Mantle Penetration of Cryogenic Metallic Cores. Extended Technical Report.

The strongest mass extinctions in the Phanerozoic systematically correlate with Large Igneous Provinces (LIPs) located antipodal to suspected or confirmed giant impact structures. Current impact models assume instantaneous vaporisation of any impactor larger than 10 km, making deep-mantle penetration impossible. We demonstrate that metallic cores of differentiated approximately 70–120 km comets/protoplanets arriving from the Oort Cloud at cryogenic temperatures (less than or equal to -250 °C) require approximately 6–9 days to melt completely by radiative heating, whereas transit time through Earth is only approximately 14 minutes. Consequently, a partially coherent metallic core can reach the antipodal lithosphere, producing massive uplift (15–50 km), radial fracturing, and prolonged flood-basalt volcanism lasting 0.3–1 Myr — exactly the observed duration and geometry of the largest LIPs. The same process explains the world-class Ni-Cu-PGE deposits (Noril'sk, Bushveld) via direct injection and fractional crystallisation of core-derived siderophile metals. The theory is quantitatively falsifiable within 5 years via existing gravity data, Os-isotope re-analysis, and targeted Antarctic exploration at Wilkes Land.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-12
DOI
https://doi.org/10.5281/zenodo.17911908
Primary Topic
Planetary Science and Exploration
Type
article
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article

Antipodal Bullet Theory: A Unified Mechanism for Large Igneous Provinces, Mass Extinctions and World-Class. Ore Deposits via Deep-Mantle Penetration of Cryogenic Metallic Cores. Extended Technical Report.

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

Antipodal Bullet Theory: A Unified Mechanism for Large Igneous Provinces, Mass Extinctions and World-Class. Ore Deposits via Deep-Mantle Penetration of Cryogenic Metallic Cores. Extended Technical Report.

article en

Abstract

The strongest mass extinctions in the Phanerozoic systematically correlate with Large Igneous Provinces (LIPs) located antipodal to suspected or confirmed giant impact structures. Current impact models assume instantaneous vaporisation of any impactor larger than 10 km, making deep-mantle penetration impossible. We demonstrate that metallic cores of differentiated approximately 70–120 km comets/protoplanets arriving from the Oort Cloud at cryogenic temperatures (less than or equal to -250 °C) require approximately 6–9 days to melt completely by radiative heating, whereas transit time through Earth is only approximately 14 minutes. Consequently, a partially coherent metallic core can reach the antipodal lithosphere, producing massive uplift (15–50 km), radial fracturing, and prolonged flood-basalt volcanism lasting 0.3–1 Myr — exactly the observed duration and geometry of the largest LIPs. The same process explains the world-class Ni-Cu-PGE deposits (Noril'sk, Bushveld) via direct injection and fractional crystallisation of core-derived siderophile metals. The theory is quantitatively falsifiable within 5 years via existing gravity data, Os-isotope re-analysis, and targeted Antarctic exploration at Wilkes Land.

Zenodo (CERN European Organization for Nuclear Research)
Life below water
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Planetary Science and Exploration
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