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dc.contributor.authorDuzdevich, Daniel
dc.contributor.authorPetkowski, Janusz J.
dc.contributor.authorBains, William
dc.contributor.authorCleaves, H. James
dc.contributor.authorCarr, Christopher E.
dc.contributor.authorBorowska, Ewa I.
dc.contributor.authorAzua-Bustos, Armando
dc.contributor.authorCable, Morgan L.
dc.contributor.authorDorrington, Graham E.
dc.contributor.authorGrinspoon, David H.
dc.contributor.authorLigterink, Niels F. W.
dc.contributor.authorRiedo, Andreas
dc.contributor.authorWurz, Peter
dc.contributor.authorSeager, Sara
dc.date.accessioned2024-04-10T05:44:15Z
dc.date.available2024-04-10T05:44:15Z
dc.date.issued2022
dc.identifier10.3390/aerospace9100597
dc.identifier.issn22264310
dc.identifier.urihttps://hdl.handle.net/20.500.12728/10799
dc.description.abstractExploring how life is distributed in the universe is an extraordinary interdisciplinary challenge, but increasingly subject to testable hypotheses. Biology has emerged and flourished on at least one planet, and that renders the search for life elsewhere a scientific question. We cannot hope to travel to exoplanets in pursuit of other life even if we identify convincing biosignatures, but we do have direct access to planets and moons in our solar system. It is therefore a matter of deep astrobiological interest to study their histories and environments, whether or not they harbor life, and better understand the constraints that delimit the emergence and persistence of biology in any context. In this perspective, we argue that targeted chemistry- and biology-inspired experiments are informative to the development of instruments for space missions, and essential for interpreting the data they generate. This approach is especially useful for studying Venus because if it were an exoplanet we would categorize it as Earth-like based on its mass and orbital distance, but its atmosphere and surface are decidedly not Earth-like. Here, we present a general justification for exploring the solar system from an astrobiological perspective, even destinations that may not harbor life. We introduce the extreme environments of Venus, and argue that rigorous and observation-driven experiments can guide instrument development for imminent missions to the Venusian clouds. We highlight several specific examples, including the study of organic chemistry under extreme conditions, and harnessing the fluorescent properties of molecules to make a variety of otherwise challenging measurements. © 2022 by the authors.es_ES
dc.description.sponsorshipBreakthrough Initiatives; Howard Hughes Medical Institute, HHMI; National Aeronautics and Space Administration, NASA; Massachusetts Institute of Technology, MIT; Change Happens Foundation; European Research Council, ERC, (818602); Human Frontier Science Program, HFSP, (RGY0066/2018)es_ES
dc.language.isoenes_ES
dc.publisherMDPIes_ES
dc.subjectexperimental astrobiologyes_ES
dc.subjectVenuses_ES
dc.subjectVenus missionses_ES
dc.titleAn Experimental Approach to Inform Venus Astrobiology Mission Design and Science Objectiveses_ES
dc.typeArticlees_ES


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