Subquantum Catastrophe in the Early Solar System: Ballistic, Thermodynamic, and Evolutionary Consequences of the Valles Marineris Event and the Dual-Matrix Hypothesis
Year: 2026
Type: article
Abstract: This paper proposes a radical revision of the geological and planetary history of the early Solar System. Classical models of the Valles Marineris formation as a result of tectonic rifting or chaotic asteroid bombardment fail to withstand scrutiny when analyzing its directed, linear morphology and the colossal volume of crustal deficit. We demonstrate that the Valles Marineris is the result of a localized subquantum or thermonuclear breach with an energy yield of ≈ 1.33 × 10²⁶ J. Mathematical modeling shows that the tangential vector of this explosion not only ejected ≈ 1.05 × 10¹⁹ kg of matter beyond Mars' gravitational well but also halted convection in its liquid core, shutting down the magnetic dynamo.Furthermore, we calculate the ballistic transfer of ≈ 10¹⁴ kg of Martian matter to Venus, which triggered an irreversible 200-million-year thermodynamic collapse of the Venusian biosphere, turning the planet into an acidic hellscape. The chronological synchronization of these events (1.2 billion years ago) perfectly aligns with the Rodinia supercontinent epoch, providing a mechanism for the panspermia of Earth's oceans and the subsequent Cambrian explosion (540 million years ago).Based on this data, we construct a mathematical model of the "Dual-Matrix": the Venusian bio-matrix (with a probability of intelligence emergence of ≈ 99.997% over 24.7 evolutionary cycles) and the Martian techno-matrix. We prove that the catastrophe was not an interplanetary war for resources, but rather a "Reactor Catastrophe"—an ontological desynchronization during an attempt to conduct a joint subquantum experiment. Finally, we resolve the Fermi Paradox by demonstrating that the surviving supercivilization transitioned to non-electromagnetic communication channels and migrated to the supermassive black hole Sagittarius A* to exploit its extreme energy density
Author: Ryzhikh, Dmitry
Language: English
Subfield: Space and Planetary Science
Field: Earth and Planetary Sciences
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7225636238
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