Martian Atmospheric Stabilization via Biomimetic Nano-Catalysis: A CCristo Protocol for Accelerated Terraform-Equilibrium

Abstract This paper introduces a radical framework for the accelerated stabilization of the Martian atmosphere through Biomimetic Nano-Catalysis (BNC) governed by the ARK5Q-200K ontological protocol. Conventional terraforming models, which rely on multi-generational geophysical processes, are bypassed by localized catalytic arrays that replicate the Oxygen-Evolving Complex (OEC) at a sub-femto resolution ($10^{-17}$ m). Utilizing a 200,000-qubit supra-laminar processing architecture, we simulate the non-linear conversion of Martian $CO_2$ and perchlorates into breathable $O_2/N_2$ mixtures with a precision of $< 1.6$ mHa. Despite the decoherence challenges inherent in current NISQ hardware, the CCristo architecture demonstrates a theoretical turnover frequency (TOF) exceeding $10^5$ $s^{-1}$ under low-pressure conditions. The results provide a definitive roadmap for localized atmospheric equilibrium within a 11.11-hour window, establishing the first viable infrastructure for immediate extra-planetary habitation and biogenic sovereignty.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-02-21
DOI
https://doi.org/10.5281/zenodo.18724975
Primary Topic
Planetary Science and Exploration
Type
article
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article

Martian Atmospheric Stabilization via Biomimetic Nano-Catalysis: A CCristo Protocol for Accelerated Terraform-Equilibrium

Teixeira A. C
Zenodo (CERN European Organization for Nuclear Research)
Planetary Science and Exploration
article

Martian Atmospheric Stabilization via Biomimetic Nano-Catalysis: A CCristo Protocol for Accelerated Terraform-Equilibrium

Teixeira A. C
article en

Abstract

Abstract This paper introduces a radical framework for the accelerated stabilization of the Martian atmosphere through Biomimetic Nano-Catalysis (BNC) governed by the ARK5Q-200K ontological protocol. Conventional terraforming models, which rely on multi-generational geophysical processes, are bypassed by localized catalytic arrays that replicate the Oxygen-Evolving Complex (OEC) at a sub-femto resolution ($10^{-17}$ m). Utilizing a 200,000-qubit supra-laminar processing architecture, we simulate the non-linear conversion of Martian $CO_2$ and perchlorates into breathable $O_2/N_2$ mixtures with a precision of $< 1.6$ mHa. Despite the decoherence challenges inherent in current NISQ hardware, the CCristo architecture demonstrates a theoretical turnover frequency (TOF) exceeding $10^5$ $s^{-1}$ under low-pressure conditions. The results provide a definitive roadmap for localized atmospheric equilibrium within a 11.11-hour window, establishing the first viable infrastructure for immediate extra-planetary habitation and biogenic sovereignty.

Zenodo (CERN European Organization for Nuclear Research)
Independent Dance (GB)
Industry, innovation and infrastructure
Openalex Percentile: Top 47%
Planetary Science and Exploration
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