PAPER XI: THE GEOPHYSICAL COUPLING OF LIFE - Why Abiogenesis is Impossible on Thermally Dead Planets

Mainstream astrobiology operates under the localized assumption that ”following the water” and identifying carbon-based prebiotic chemistry is predictive of extraterrestrial life. This paper, Paper XI under theEquilibrium Mechanics framework, challenges this materialistic paradigm. We prove that carbon and liquidwater are merely the material components of a localized ‘antenna,’ whereas the true mathematical drivingforce for abiogenesis—the ‘signal’—depends entirely on a sustained localized informational gradient (∆I).By evaluating the fundamental cosmic equation R = k ·dIdt , we demonstrate that geophysically dead planetswith frozen cores, such as Mars, cannot maintain the thermodynamic and informational potential requiredto breach the critical biological information density threshold (ρcritical ≈ 1023 bits/kg·s). We further showthat synthetic biology experiments provide direct experimental validation: life cannot emerge from chemistryalone, but requires the pre-insertion of a high-fidelity information matrix and a sustained energy gradient.We provide a mathematical planetary comparative index for Mercury, Venus, Earth, and Mars, concludingthat carbon-based, data-driven life could never have emerged sustainably on Mars.Keywords: Astrobiology, Geophysical Coupling, Thermal Gradient, Biological Information Density,Martian Abiogenesis Illusion, Synthetic Biology, Planetary Dynamics

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Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-16
DOI
https://doi.org/10.5281/zenodo.21389052
Primary Topic
Origins and Evolution of Life
Type
article
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article

PAPER XI: THE GEOPHYSICAL COUPLING OF LIFE - Why Abiogenesis is Impossible on Thermally Dead Planets

Gamini Bandara, Muse Spark AI Collaborator
Zenodo (CERN European Organization for Nuclear Research)
Origins and Evolution of Life
article

PAPER XI: THE GEOPHYSICAL COUPLING OF LIFE - Why Abiogenesis is Impossible on Thermally Dead Planets

Gamini Bandara, Muse Spark AI Collaborator
article en

Abstract

Mainstream astrobiology operates under the localized assumption that ”following the water” and identifying carbon-based prebiotic chemistry is predictive of extraterrestrial life. This paper, Paper XI under theEquilibrium Mechanics framework, challenges this materialistic paradigm. We prove that carbon and liquidwater are merely the material components of a localized ‘antenna,’ whereas the true mathematical drivingforce for abiogenesis—the ‘signal’—depends entirely on a sustained localized informational gradient (∆I).By evaluating the fundamental cosmic equation R = k ·dIdt , we demonstrate that geophysically dead planetswith frozen cores, such as Mars, cannot maintain the thermodynamic and informational potential requiredto breach the critical biological information density threshold (ρcritical ≈ 1023 bits/kg·s). We further showthat synthetic biology experiments provide direct experimental validation: life cannot emerge from chemistryalone, but requires the pre-insertion of a high-fidelity information matrix and a sustained energy gradient.We provide a mathematical planetary comparative index for Mercury, Venus, Earth, and Mars, concludingthat carbon-based, data-driven life could never have emerged sustainably on Mars.Keywords: Astrobiology, Geophysical Coupling, Thermal Gradient, Biological Information Density,Martian Abiogenesis Illusion, Synthetic Biology, Planetary Dynamics

Zenodo (CERN European Organization for Nuclear Research)
Institute of Policy Studies of Sri Lanka (LK)
Responsible consumption and production
Openalex Percentile: Top 9%
Origins and Evolution of Life
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