The Moon is characterised by extremely harsh conditions due to ultraviolet irradiation, wide temperature extremes, vacuum resulting from the absence of an atmosphere, and high ionising radiation. Therefore, its surface may provide a unique platform to investigate the effects of such conditions. For lunar exploration with the Lunar Gateway platform, exposure experiments in Low Earth Orbit are useful testbeds to prepare for lunar space experiments and to understand how and if potential biomarkers are influenced by extra-terrestrial conditions. During the BIOMEX (BIOlogy and Mars EXperiment) project, dried colonies of the fungus Cryomyces antarcticus grown on Lunar Regolith Analogue (LRA) were exposed to space conditions for 16 months aboard the EXPOSE-R2 payload outside the International Space Station. In this study, we investigated the stability/degradation of fungal biomarkers in LRA after exposure to i) simulated space and ii) real space conditions, using Raman spectroscopy, gas chromatography-mass spectrometry, and DNA amplification. The results demonstrated that fungal biomarkers were detectable after 16 months of real space exposure. This work will contribute to the interpretation of data from future biological experiments in the Cislunar orbit with the Lunar Gateway platform and/or on the lunar surface, in preparation for the next step of human exploration

Investigation of fungal biomolecules after Low Earth Orbit exposure: a testbed for the next Moon missions / Cassaro A., Pacelli C., Baqué M., Cavalazzi B., Gasparotto G., Saladino R., Botta L., Böttger U., Rabbow E., de Vera J.P., Onofri S.. - In: ENVIRONMENTAL MICROBIOLOGY. - ISSN 1462-2920. - ELETTRONICO. - 24:7(2022), pp. 2938-2950. [10.1111/1462-2920.15995]

Investigation of fungal biomolecules after Low Earth Orbit exposure: a testbed for the next Moon missions

Cavalazzi B.
Formal Analysis
;
Gasparotto G.
Formal Analysis
;
2022

Abstract

The Moon is characterised by extremely harsh conditions due to ultraviolet irradiation, wide temperature extremes, vacuum resulting from the absence of an atmosphere, and high ionising radiation. Therefore, its surface may provide a unique platform to investigate the effects of such conditions. For lunar exploration with the Lunar Gateway platform, exposure experiments in Low Earth Orbit are useful testbeds to prepare for lunar space experiments and to understand how and if potential biomarkers are influenced by extra-terrestrial conditions. During the BIOMEX (BIOlogy and Mars EXperiment) project, dried colonies of the fungus Cryomyces antarcticus grown on Lunar Regolith Analogue (LRA) were exposed to space conditions for 16 months aboard the EXPOSE-R2 payload outside the International Space Station. In this study, we investigated the stability/degradation of fungal biomarkers in LRA after exposure to i) simulated space and ii) real space conditions, using Raman spectroscopy, gas chromatography-mass spectrometry, and DNA amplification. The results demonstrated that fungal biomarkers were detectable after 16 months of real space exposure. This work will contribute to the interpretation of data from future biological experiments in the Cislunar orbit with the Lunar Gateway platform and/or on the lunar surface, in preparation for the next step of human exploration
2022
Investigation of fungal biomolecules after Low Earth Orbit exposure: a testbed for the next Moon missions / Cassaro A., Pacelli C., Baqué M., Cavalazzi B., Gasparotto G., Saladino R., Botta L., Böttger U., Rabbow E., de Vera J.P., Onofri S.. - In: ENVIRONMENTAL MICROBIOLOGY. - ISSN 1462-2920. - ELETTRONICO. - 24:7(2022), pp. 2938-2950. [10.1111/1462-2920.15995]
Cassaro A., Pacelli C., Baqué M., Cavalazzi B., Gasparotto G., Saladino R., Botta L., Böttger U., Rabbow E., de Vera J.P., Onofri S.
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11585/880731
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