Nitrogen accountancy in space agriculture

Food production and pharmaceutical synthesis are posited as essential biotechnologies for facilitating human exploration beyond Earth. These technologies not only offer critical green space and food agency to astronauts but also promise to minimize mass and volume requirements through scalable, modular agriculture within closed-loop systems, offering an advantage over traditional bring-along strategies. Despite these benefits, the prevalent model for evaluating such systems exhibits significant limitations. It lacks comprehensive inventory and mass balance analyses for crop cultivation and life support, and fails to consider the complexities introduced by cultivating multiple crop varieties, which is crucial for enhancing food diversity and nutritional value. Here we expand space agriculture modeling to account for nitrogen dependence across an array of crops and demonstrate our model with experimental fitting of parameters. By adding nitrogen limitations, an extended model can account for potential interruptions in feedstock supply. Furthermore, sensitivity analysis was used to distill key consequential parameters that may be the focus of future experimental efforts.

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Publication Details

Journal
npj Microgravity
Published
2024-09-28
DOI
https://doi.org/10.1038/s41526-024-00428-x
Citations
1
Primary Topic
Plant nutrient uptake and metabolism
Type
article
Field-Weighted Citation Impact
0.60

Funders

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article

Nitrogen accountancy in space agriculture

Aaron J. Berliner, Somen Nandi, Georgios Makrygiorgos, Kevin Yates et al.
1 citations
npj Microgravity
Plant nutrient uptake and metabolism
0.60
article

Nitrogen accountancy in space agriculture

Aaron J. Berliner, Somen Nandi, Georgios Makrygiorgos, Kevin Yates, Matthew J. McNulty, James M. Wilson, Charles Legg, Adam P. Arkin, Paul Kusuma, Karen A. McDonald, Farrah Kaiyom, Claire Kinlaw, Ali Mesbah, Imran Khan, Bruce Bugbee, Diogo Miron
article en
1 citations

Abstract

Food production and pharmaceutical synthesis are posited as essential biotechnologies for facilitating human exploration beyond Earth. These technologies not only offer critical green space and food agency to astronauts but also promise to minimize mass and volume requirements through scalable, modular agriculture within closed-loop systems, offering an advantage over traditional bring-along strategies. Despite these benefits, the prevalent model for evaluating such systems exhibits significant limitations. It lacks comprehensive inventory and mass balance analyses for crop cultivation and life support, and fails to consider the complexities introduced by cultivating multiple crop varieties, which is crucial for enhancing food diversity and nutritional value. Here we expand space agriculture modeling to account for nitrogen dependence across an array of crops and demonstrate our model with experimental fitting of parameters. By adding nitrogen limitations, an extended model can account for potential interruptions in feedstock supply. Furthermore, sensitivity analysis was used to distill key consequential parameters that may be the focus of future experimental efforts.

npj MicrogravityVol. 10(1)
Utah State University (US), Technology and Engineering Center for Space Utilization (CN), Selecta Biosciences (United States) (US), University of California, Davis (US), University of California, Berkeley (US)
National Aeronautics and Space Administration
Zero hunger
Openalex Percentile: Top 22%
Plant nutrient uptake and metabolism
0.60
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