Supplemental Food Production With Plants: A Review of NASA Research

Bioregenerative life-support systems for space have been investigated for 60 years, and plants and other photosynthetic organisms are central to this concept for their ability to produce food and O2, remove CO2, and help recycle wastewater. Many of the studies targeted larger scale systems that migh...

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Autores principales: Christina M. Johnson, Haley O. Boles, LaShelle E. Spencer, Lucie Poulet, Matthew Romeyn, Jess M. Bunchek, Ralph Fritsche, Gioia D. Massa, Aubrie O’Rourke, Raymond M. Wheeler
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Publicado: Frontiers Media S.A. 2021
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Acceso en línea:https://doaj.org/article/ff7d76fd4e49439f949aa651e1edb1e0
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spelling oai:doaj.org-article:ff7d76fd4e49439f949aa651e1edb1e02021-11-10T09:36:47ZSupplemental Food Production With Plants: A Review of NASA Research2296-987X10.3389/fspas.2021.734343https://doaj.org/article/ff7d76fd4e49439f949aa651e1edb1e02021-11-01T00:00:00Zhttps://www.frontiersin.org/articles/10.3389/fspas.2021.734343/fullhttps://doaj.org/toc/2296-987XBioregenerative life-support systems for space have been investigated for 60 years, and plants and other photosynthetic organisms are central to this concept for their ability to produce food and O2, remove CO2, and help recycle wastewater. Many of the studies targeted larger scale systems that might be used for planetary surface missions, with estimates ranging from about 40 to 50 m2 (or more) of crop growing area needed per person. But early space missions will not have these volumes available for crop growth. How can plants be used in the interim, where perhaps <5 m2 of growing area might be available? One option is to grow plants as supplemental, fresh foods. This could improve the quality and diversity of the meals on the International Space Station or on the Lunar surface, and supply important nutrients to the astronauts for missions like Mars transit, and longer duration Martian surface missions. Although plant chambers for supplemental food production would be relatively small, they could provide the bioregenerative research community with platforms for testing different crops in a space environment and serve as a stepping stone to build larger bioregenerative systems for future missions. Here we review some of NASA’s research and development (ground and spaceflight) targeting fresh food production systems for space. We encourage readers to also look into the extensive work by other space agencies and universities around the world on this same topic.Christina M. JohnsonHaley O. BolesLaShelle E. SpencerLucie PouletMatthew RomeynJess M. BunchekRalph FritscheGioia D. MassaAubrie O’RourkeRaymond M. WheelerFrontiers Media S.A.articlecropnutrientsaladveggiegreenhousesustainableAstronomyQB1-991Geophysics. Cosmic physicsQC801-809ENFrontiers in Astronomy and Space Sciences, Vol 8 (2021)
institution DOAJ
collection DOAJ
language EN
topic crop
nutrient
salad
veggie
greenhouse
sustainable
Astronomy
QB1-991
Geophysics. Cosmic physics
QC801-809
spellingShingle crop
nutrient
salad
veggie
greenhouse
sustainable
Astronomy
QB1-991
Geophysics. Cosmic physics
QC801-809
Christina M. Johnson
Haley O. Boles
LaShelle E. Spencer
Lucie Poulet
Matthew Romeyn
Jess M. Bunchek
Ralph Fritsche
Gioia D. Massa
Aubrie O’Rourke
Raymond M. Wheeler
Supplemental Food Production With Plants: A Review of NASA Research
description Bioregenerative life-support systems for space have been investigated for 60 years, and plants and other photosynthetic organisms are central to this concept for their ability to produce food and O2, remove CO2, and help recycle wastewater. Many of the studies targeted larger scale systems that might be used for planetary surface missions, with estimates ranging from about 40 to 50 m2 (or more) of crop growing area needed per person. But early space missions will not have these volumes available for crop growth. How can plants be used in the interim, where perhaps <5 m2 of growing area might be available? One option is to grow plants as supplemental, fresh foods. This could improve the quality and diversity of the meals on the International Space Station or on the Lunar surface, and supply important nutrients to the astronauts for missions like Mars transit, and longer duration Martian surface missions. Although plant chambers for supplemental food production would be relatively small, they could provide the bioregenerative research community with platforms for testing different crops in a space environment and serve as a stepping stone to build larger bioregenerative systems for future missions. Here we review some of NASA’s research and development (ground and spaceflight) targeting fresh food production systems for space. We encourage readers to also look into the extensive work by other space agencies and universities around the world on this same topic.
format article
author Christina M. Johnson
Haley O. Boles
LaShelle E. Spencer
Lucie Poulet
Matthew Romeyn
Jess M. Bunchek
Ralph Fritsche
Gioia D. Massa
Aubrie O’Rourke
Raymond M. Wheeler
author_facet Christina M. Johnson
Haley O. Boles
LaShelle E. Spencer
Lucie Poulet
Matthew Romeyn
Jess M. Bunchek
Ralph Fritsche
Gioia D. Massa
Aubrie O’Rourke
Raymond M. Wheeler
author_sort Christina M. Johnson
title Supplemental Food Production With Plants: A Review of NASA Research
title_short Supplemental Food Production With Plants: A Review of NASA Research
title_full Supplemental Food Production With Plants: A Review of NASA Research
title_fullStr Supplemental Food Production With Plants: A Review of NASA Research
title_full_unstemmed Supplemental Food Production With Plants: A Review of NASA Research
title_sort supplemental food production with plants: a review of nasa research
publisher Frontiers Media S.A.
publishDate 2021
url https://doaj.org/article/ff7d76fd4e49439f949aa651e1edb1e0
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