BEYOND ELECTROLYSIS: ADVANCING OXYGEN GENERATION FOR LONG-TERM SPACE MISSIONS

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1. Verfasser: Radhika Ganesh
Format: Recurso digital
Sprache:Englisch
Veröffentlicht: Zenodo 2025
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author Radhika Ganesh
author_facet Radhika Ganesh
contents <p>This paper discusses the limitations of electrolysis and how alternative methods, such as chemical oxygen generation or molecular gas-phase synthesis, could better support extended space mission durations. Using a comparative analysis and argumentative format, the study evaluates the efficacy of such methods. The findings suggest that while electrolysis is the most effective life support system (LSS) for short-term space travel, it is not sustainable for deep-space missions. Instead, emerging technologies like artificial photosynthesis and molecular gas-phase synthesis require less development to acquire these deep-space qualities, though research in this area remains underdeveloped. Further development of these ideas is crucial as a next step for humans to become an interplanetary species.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_16744233
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language eng
publishDate 2025
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spellingShingle BEYOND ELECTROLYSIS: ADVANCING OXYGEN GENERATION FOR LONG-TERM SPACE MISSIONS
Radhika Ganesh
Electrolysis
LSS
Artificial Photosynthesis
Molecular Gas-Phase Synthesis
Nanostructuring
Photocorrosion
Electrolyte Degradation
<p>This paper discusses the limitations of electrolysis and how alternative methods, such as chemical oxygen generation or molecular gas-phase synthesis, could better support extended space mission durations. Using a comparative analysis and argumentative format, the study evaluates the efficacy of such methods. The findings suggest that while electrolysis is the most effective life support system (LSS) for short-term space travel, it is not sustainable for deep-space missions. Instead, emerging technologies like artificial photosynthesis and molecular gas-phase synthesis require less development to acquire these deep-space qualities, though research in this area remains underdeveloped. Further development of these ideas is crucial as a next step for humans to become an interplanetary species.</p>
title BEYOND ELECTROLYSIS: ADVANCING OXYGEN GENERATION FOR LONG-TERM SPACE MISSIONS
topic Electrolysis
LSS
Artificial Photosynthesis
Molecular Gas-Phase Synthesis
Nanostructuring
Photocorrosion
Electrolyte Degradation
url https://doi.org/10.5281/zenodo.16744233