Operation of an experimental algal gas exchanger for use in a CELSS

Concepts of a CELSS anticipate the use of photosynthetic organisms (higher plants and algae) for air revitalization. The rates of production and uptake of carbon dioxide and oxygen between the crew and the photosynthetic organisms are mismatched. An aglal system used for gas exchange only will have...

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Veröffentlicht in:Advances in space research 1987, Vol.7 (4), p.17-27
Hauptverfasser: Smernoff, David T., Wharton, Robert A., Averner, Maurice M.
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container_title Advances in space research
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creator Smernoff, David T.
Wharton, Robert A.
Averner, Maurice M.
description Concepts of a CELSS anticipate the use of photosynthetic organisms (higher plants and algae) for air revitalization. The rates of production and uptake of carbon dioxide and oxygen between the crew and the photosynthetic organisms are mismatched. An aglal system used for gas exchange only will have the difficulty of an accumulation or depletion of these gases beyond physiologically tolerable limits (in a materially closed system the mismatch between assimilatory quotient (AQ) and respiratory quotient (RQ) will be balanced by the operation of the waste processor). We report the results of a study designed to test the feasibility of using environmental manipulations to maintain physiologically appropriate atmospheres for algae ( Chlorella pyrenoidosa) and mice ( Mus musculus strain DW/J) in a gas-closed system. Specifically, we consider the atmosphere behavior of this system with Chlorella grown on nitrate or urea and at different light intensities and optical densities. Manipulation of both the photosynthetic rate and AQ of the alga has been found to reduce the mismatch of gas requirements and allow operation of the system in a gas-stable manner. Operation of such a system in a CELSS may be useful for reduction of buffer sizes, as a backup system for higher plant air revitalization and to supply extra oxygen to the waste processor or during crew changes. In addition, mass balance for components of the system (mouse, algae and a waste processor) are presented.
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The rates of production and uptake of carbon dioxide and oxygen between the crew and the photosynthetic organisms are mismatched. An aglal system used for gas exchange only will have the difficulty of an accumulation or depletion of these gases beyond physiologically tolerable limits (in a materially closed system the mismatch between assimilatory quotient (AQ) and respiratory quotient (RQ) will be balanced by the operation of the waste processor). We report the results of a study designed to test the feasibility of using environmental manipulations to maintain physiologically appropriate atmospheres for algae ( Chlorella pyrenoidosa) and mice ( Mus musculus strain DW/J) in a gas-closed system. Specifically, we consider the atmosphere behavior of this system with Chlorella grown on nitrate or urea and at different light intensities and optical densities. Manipulation of both the photosynthetic rate and AQ of the alga has been found to reduce the mismatch of gas requirements and allow operation of the system in a gas-stable manner. Operation of such a system in a CELSS may be useful for reduction of buffer sizes, as a backup system for higher plant air revitalization and to supply extra oxygen to the waste processor or during crew changes. 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identifier ISSN: 0273-1177
ispartof Advances in space research, 1987, Vol.7 (4), p.17-27
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source MEDLINE; Elsevier ScienceDirect Journals; NASA Technical Reports Server
subjects Air Conditioning - instrumentation
Air Conditioning - methods
Animals
Bacteria
Biological and medical sciences
Biomass
Biotechnology
Carbon Dioxide - metabolism
Chlorella - metabolism
Chlorella - physiology
Ecological Systems, Closed
Energy Metabolism
Feasibility Studies
Fundamental and applied biological sciences. Psychology
Industrial applications and implications. Economical aspects
Life Support Systems - instrumentation
Man/System Technology And Life Support
Mice
Models, Biological
Other applications
Oxygen Consumption
Photosynthesis
Space life sciences
Systems Integration
Waste Management - methods
title Operation of an experimental algal gas exchanger for use in a CELSS
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