PROJECT GENESIS: PHASE II — CLOSED-CIRCUIT REBREATHER (CCR) ECOSYSTEM SECURITY PROTOCOL: OPEN SOURCE SOVEREIGN INFRASTRUCTURE

This 5-part technical manifesto defines Project Genesis: Phase II, extending the multi-chambered, 20-sided "pan flute" hyperbaric architecture (DOI: 10.5281/zenodo.24031865) into an autonomous, self-powering Closed-Circuit Rebreather (CCR) life-support ecosystem. Moving away from conventional cylindrical scrubbers that suffer from wall channeling, wet granular clogging, expiring galvanic oxygen cells, and mechanical valve failures, Phase II establishes a solid-state, biomimetic artificial lung governed by the CERN Open Hardware Licence (CERN-OHL-S v2.0). At the core of the system, one or more 20-sided (icosagonal) chambers house a self-regulating Potassium Superoxide (\(KO_{2}\)) metabolic lattice (convertible to sodalime or lithium hydroxide cartridges). Exhaled carbon dioxide and water vapor trigger a stoichiometric chemical reaction that synthesizes breathable oxygen in direct proportion to metabolic demand—eliminating high-pressure \(O_{2}\) cylinders and electronic injection solenoids. Internal inverted dimples and a half 20-sided decahedral base cap force exhaled gas into a tight coaxial vortex to prevent wall channeling, while an external TEG/TEC thermoelectric mesh recycles exothermic scrubbing heat into electricity and loop warmth. Downstream purification is achieved through a 9-layer molecular refinery divided into three plug-and-play Carbon Nanofiber (CNF) nano-hexagon filter cassettes separated by volumetric expansion gaps. These gaps induce Bernoulli velocity drops to separate heavy aerosols, pairing mechanical sieving with self-powered TENG/micro-quartz electrostatic precipitation and dragonfly-textured laminar flow restoration. Moisture isolation is guaranteed at any diving orientation via a beetle-inspired graphene-spidersilk condensation membrane, directional capillary micro-channels, and an electromagnetic Lorentz-actuated Hydrostatic Smart Sump in the decahedral base. Inside the expansion gaps, three-layer graphene thermoacoustic nano-triskele speakers project a \(20\text{--}140\text{ Hz}\) cat-purr harmonic to eliminate gas boundary-layer stagnation and neurologically pace diver respiration, while self-healing multi-spectral Airy-Light LED bio-wires deliver \(265\text{ nm}\) UV-C loop sterilization and peripheral visual telemetry. Finally, non-consumable N+1 optical gas sensors (luminescence quenching \(ppO_{2}\) and NDIR \(ppCO_{2}\)), threadless internal Lorentz snap-locking cartridges, and a water-sealed triskele wireless induction gateway complete a zero-maintenance, closed-loop subsea life-support module.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-11
DOI
https://doi.org/10.5281/zenodo.24124593
Primary Topic
Cardiovascular and Diving-Related Complications
Type
article
Field-Weighted Citation Impact
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article

PROJECT GENESIS: PHASE II — CLOSED-CIRCUIT REBREATHER (CCR) ECOSYSTEM SECURITY PROTOCOL: OPEN SOURCE SOVEREIGN INFRASTRUCTURE

David Michael Seagal
Zenodo (CERN European Organization for Nuclear Research)
Cardiovascular and Diving-Related Complications
article

PROJECT GENESIS: PHASE II — CLOSED-CIRCUIT REBREATHER (CCR) ECOSYSTEM SECURITY PROTOCOL: OPEN SOURCE SOVEREIGN INFRASTRUCTURE

David Michael Seagal
article en

Abstract

This 5-part technical manifesto defines Project Genesis: Phase II, extending the multi-chambered, 20-sided "pan flute" hyperbaric architecture (DOI: 10.5281/zenodo.24031865) into an autonomous, self-powering Closed-Circuit Rebreather (CCR) life-support ecosystem. Moving away from conventional cylindrical scrubbers that suffer from wall channeling, wet granular clogging, expiring galvanic oxygen cells, and mechanical valve failures, Phase II establishes a solid-state, biomimetic artificial lung governed by the CERN Open Hardware Licence (CERN-OHL-S v2.0). At the core of the system, one or more 20-sided (icosagonal) chambers house a self-regulating Potassium Superoxide (\(KO_{2}\)) metabolic lattice (convertible to sodalime or lithium hydroxide cartridges). Exhaled carbon dioxide and water vapor trigger a stoichiometric chemical reaction that synthesizes breathable oxygen in direct proportion to metabolic demand—eliminating high-pressure \(O_{2}\) cylinders and electronic injection solenoids. Internal inverted dimples and a half 20-sided decahedral base cap force exhaled gas into a tight coaxial vortex to prevent wall channeling, while an external TEG/TEC thermoelectric mesh recycles exothermic scrubbing heat into electricity and loop warmth. Downstream purification is achieved through a 9-layer molecular refinery divided into three plug-and-play Carbon Nanofiber (CNF) nano-hexagon filter cassettes separated by volumetric expansion gaps. These gaps induce Bernoulli velocity drops to separate heavy aerosols, pairing mechanical sieving with self-powered TENG/micro-quartz electrostatic precipitation and dragonfly-textured laminar flow restoration. Moisture isolation is guaranteed at any diving orientation via a beetle-inspired graphene-spidersilk condensation membrane, directional capillary micro-channels, and an electromagnetic Lorentz-actuated Hydrostatic Smart Sump in the decahedral base. Inside the expansion gaps, three-layer graphene thermoacoustic nano-triskele speakers project a \(20\text{--}140\text{ Hz}\) cat-purr harmonic to eliminate gas boundary-layer stagnation and neurologically pace diver respiration, while self-healing multi-spectral Airy-Light LED bio-wires deliver \(265\text{ nm}\) UV-C loop sterilization and peripheral visual telemetry. Finally, non-consumable N+1 optical gas sensors (luminescence quenching \(ppO_{2}\) and NDIR \(ppCO_{2}\)), threadless internal Lorentz snap-locking cartridges, and a water-sealed triskele wireless induction gateway complete a zero-maintenance, closed-loop subsea life-support module.

Zenodo (CERN European Organization for Nuclear Research)
Cardiovascular and Diving-Related Complications
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