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Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station

As humans explore and settle in space, they will need to mine elements to support industries such as manufacturing and construction. In preparation for the establishment of permanent human settlements across the Solar System, we conducted the ESA BioRock experiment on board the International Space S...

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Autores principales: Cockell, Charles S., Santomartino, Rosa, Finster, Kai, Waajen, Annemiek C., Nicholson, Natasha, Loudon, Claire-Marie, Eades, Lorna J., Moeller, Ralf, Rettberg, Petra, Fuchs, Felix M., Van Houdt, Rob, Leys, Natalie, Coninx, Ilse, Hatton, Jason, Parmitano, Luca, Krause, Jutta, Koehler, Andrea, Caplin, Nicol, Zuijderduijn, Lobke, Mariani, Alessandro, Pellari, Stefano, Carubia, Fabrizio, Luciani, Giacomo, Balsamo, Michele, Zolesi, Valfredo, Ochoa, Jon, Sen, Pia, Watt, James A. J., Doswald-Winkler, Jeannine, Herová, Magdalena, Rattenbacher, Bernd, Wadsworth, Jennifer, Everroad, R. Craig, Demets, René
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Frontiers Media S.A. 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8047202/
https://www.ncbi.nlm.nih.gov/pubmed/33868198
http://dx.doi.org/10.3389/fmicb.2021.641387
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author Cockell, Charles S.
Santomartino, Rosa
Finster, Kai
Waajen, Annemiek C.
Nicholson, Natasha
Loudon, Claire-Marie
Eades, Lorna J.
Moeller, Ralf
Rettberg, Petra
Fuchs, Felix M.
Van Houdt, Rob
Leys, Natalie
Coninx, Ilse
Hatton, Jason
Parmitano, Luca
Krause, Jutta
Koehler, Andrea
Caplin, Nicol
Zuijderduijn, Lobke
Mariani, Alessandro
Pellari, Stefano
Carubia, Fabrizio
Luciani, Giacomo
Balsamo, Michele
Zolesi, Valfredo
Ochoa, Jon
Sen, Pia
Watt, James A. J.
Doswald-Winkler, Jeannine
Herová, Magdalena
Rattenbacher, Bernd
Wadsworth, Jennifer
Everroad, R. Craig
Demets, René
author_facet Cockell, Charles S.
Santomartino, Rosa
Finster, Kai
Waajen, Annemiek C.
Nicholson, Natasha
Loudon, Claire-Marie
Eades, Lorna J.
Moeller, Ralf
Rettberg, Petra
Fuchs, Felix M.
Van Houdt, Rob
Leys, Natalie
Coninx, Ilse
Hatton, Jason
Parmitano, Luca
Krause, Jutta
Koehler, Andrea
Caplin, Nicol
Zuijderduijn, Lobke
Mariani, Alessandro
Pellari, Stefano
Carubia, Fabrizio
Luciani, Giacomo
Balsamo, Michele
Zolesi, Valfredo
Ochoa, Jon
Sen, Pia
Watt, James A. J.
Doswald-Winkler, Jeannine
Herová, Magdalena
Rattenbacher, Bernd
Wadsworth, Jennifer
Everroad, R. Craig
Demets, René
author_sort Cockell, Charles S.
collection PubMed
description As humans explore and settle in space, they will need to mine elements to support industries such as manufacturing and construction. In preparation for the establishment of permanent human settlements across the Solar System, we conducted the ESA BioRock experiment on board the International Space Station to investigate whether biological mining could be accomplished under extraterrestrial gravity conditions. We tested the hypothesis that the gravity (g) level influenced the efficacy with which biomining could be achieved from basalt, an abundant material on the Moon and Mars, by quantifying bioleaching by three different microorganisms under microgravity, simulated Mars and Earth gravitational conditions. One element of interest in mining is vanadium (V), which is added to steel to fabricate high strength, corrosion-resistant structural materials for buildings, transportation, tools and other applications. The results showed that Sphingomonas desiccabilis and Bacillus subtilis enhanced the leaching of vanadium under the three gravity conditions compared to sterile controls by 184.92 to 283.22%, respectively. Gravity did not have a significant effect on mean leaching, thus showing the potential for biomining on Solar System objects with diverse gravitational conditions. Our results demonstrate the potential to use microorganisms to conduct elemental mining and other bioindustrial processes in space locations with non-1 × g gravity. These same principles apply to extraterrestrial bioremediation and elemental recycling beyond Earth.
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spelling pubmed-80472022021-04-16 Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station Cockell, Charles S. Santomartino, Rosa Finster, Kai Waajen, Annemiek C. Nicholson, Natasha Loudon, Claire-Marie Eades, Lorna J. Moeller, Ralf Rettberg, Petra Fuchs, Felix M. Van Houdt, Rob Leys, Natalie Coninx, Ilse Hatton, Jason Parmitano, Luca Krause, Jutta Koehler, Andrea Caplin, Nicol Zuijderduijn, Lobke Mariani, Alessandro Pellari, Stefano Carubia, Fabrizio Luciani, Giacomo Balsamo, Michele Zolesi, Valfredo Ochoa, Jon Sen, Pia Watt, James A. J. Doswald-Winkler, Jeannine Herová, Magdalena Rattenbacher, Bernd Wadsworth, Jennifer Everroad, R. Craig Demets, René Front Microbiol Microbiology As humans explore and settle in space, they will need to mine elements to support industries such as manufacturing and construction. In preparation for the establishment of permanent human settlements across the Solar System, we conducted the ESA BioRock experiment on board the International Space Station to investigate whether biological mining could be accomplished under extraterrestrial gravity conditions. We tested the hypothesis that the gravity (g) level influenced the efficacy with which biomining could be achieved from basalt, an abundant material on the Moon and Mars, by quantifying bioleaching by three different microorganisms under microgravity, simulated Mars and Earth gravitational conditions. One element of interest in mining is vanadium (V), which is added to steel to fabricate high strength, corrosion-resistant structural materials for buildings, transportation, tools and other applications. The results showed that Sphingomonas desiccabilis and Bacillus subtilis enhanced the leaching of vanadium under the three gravity conditions compared to sterile controls by 184.92 to 283.22%, respectively. Gravity did not have a significant effect on mean leaching, thus showing the potential for biomining on Solar System objects with diverse gravitational conditions. Our results demonstrate the potential to use microorganisms to conduct elemental mining and other bioindustrial processes in space locations with non-1 × g gravity. These same principles apply to extraterrestrial bioremediation and elemental recycling beyond Earth. Frontiers Media S.A. 2021-04-01 /pmc/articles/PMC8047202/ /pubmed/33868198 http://dx.doi.org/10.3389/fmicb.2021.641387 Text en Copyright © 2021 Cockell, Santomartino, Finster, Waajen, Nicholson, Loudon, Eades, Moeller, Rettberg, Fuchs, Van Houdt, Leys, Coninx, Hatton, Parmitano, Krause, Koehler, Caplin, Zuijderduijn, Mariani, Pellari, Carubia, Luciani, Balsamo, Zolesi, Ochoa, Sen, Watt, Doswald-Winkler, Herová, Rattenbacher, Wadsworth, Everroad and Demets. https://creativecommons.org/licenses/by/4.0/This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
spellingShingle Microbiology
Cockell, Charles S.
Santomartino, Rosa
Finster, Kai
Waajen, Annemiek C.
Nicholson, Natasha
Loudon, Claire-Marie
Eades, Lorna J.
Moeller, Ralf
Rettberg, Petra
Fuchs, Felix M.
Van Houdt, Rob
Leys, Natalie
Coninx, Ilse
Hatton, Jason
Parmitano, Luca
Krause, Jutta
Koehler, Andrea
Caplin, Nicol
Zuijderduijn, Lobke
Mariani, Alessandro
Pellari, Stefano
Carubia, Fabrizio
Luciani, Giacomo
Balsamo, Michele
Zolesi, Valfredo
Ochoa, Jon
Sen, Pia
Watt, James A. J.
Doswald-Winkler, Jeannine
Herová, Magdalena
Rattenbacher, Bernd
Wadsworth, Jennifer
Everroad, R. Craig
Demets, René
Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station
title Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station
title_full Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station
title_fullStr Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station
title_full_unstemmed Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station
title_short Microbially-Enhanced Vanadium Mining and Bioremediation Under Micro- and Mars Gravity on the International Space Station
title_sort microbially-enhanced vanadium mining and bioremediation under micro- and mars gravity on the international space station
topic Microbiology
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8047202/
https://www.ncbi.nlm.nih.gov/pubmed/33868198
http://dx.doi.org/10.3389/fmicb.2021.641387
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