Transcriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflight

Abstract The Virgin Galactic Unity 22 mission conducted the first astronaut-manipulated suborbital spaceflight experiment. The experiment examined the operationalization of Kennedy Space Center Fixation Tubes (KFTs) as a generalizable approach to preserving biology at various phases of suborbital fl...

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Main Authors: Robert J. Ferl, Mingqi Zhou, Hunter F. Strickland, Natasha J. Haveman, Jordan B. Callaham, Sirisha Bandla, Daniel Ambriz, Anna-Lisa Paul
Format: Article
Language:English
Published: Nature Portfolio 2023-12-01
Series:npj Microgravity
Online Access:https://doi.org/10.1038/s41526-023-00340-w
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author Robert J. Ferl
Mingqi Zhou
Hunter F. Strickland
Natasha J. Haveman
Jordan B. Callaham
Sirisha Bandla
Daniel Ambriz
Anna-Lisa Paul
author_facet Robert J. Ferl
Mingqi Zhou
Hunter F. Strickland
Natasha J. Haveman
Jordan B. Callaham
Sirisha Bandla
Daniel Ambriz
Anna-Lisa Paul
author_sort Robert J. Ferl
collection DOAJ
description Abstract The Virgin Galactic Unity 22 mission conducted the first astronaut-manipulated suborbital spaceflight experiment. The experiment examined the operationalization of Kennedy Space Center Fixation Tubes (KFTs) as a generalizable approach to preserving biology at various phases of suborbital flight. The biology chosen for this experiment was Arabidopsis thaliana, ecotype Col-0, because of the plant history of spaceflight experimentation within KFTs and wealth of comparative data from orbital experiments. KFTs were deployed as a wearable device, a leg pouch attached to the astronaut, which proved to be operationally effective during the course of the flight. Data from the inflight samples indicated that the microgravity period of the flight elicited the strongest transcriptomic responses as measured by the number of genes showing differential expression. Genes related to reactive oxygen species and stress, as well as genes associated with orbital spaceflight, were highly represented among the suborbital gene expression profile. In addition, gene families largely unaffected in orbital spaceflight were diversely regulated in suborbital flight, including stress-responsive transcription factors. The human-tended suborbital experiment demonstrated the operational effectiveness of the KFTs in suborbital flight and suggests that rapid transcriptomic responses are a part of the temporal dynamics at the beginning of physiological adaptation to spaceflight.
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spelling doaj.art-f17655cd016f43979867e4b601d7dc862023-12-24T12:25:25ZengNature Portfolionpj Microgravity2373-80652023-12-019111110.1038/s41526-023-00340-wTranscriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflightRobert J. Ferl0Mingqi Zhou1Hunter F. Strickland2Natasha J. Haveman3Jordan B. Callaham4Sirisha Bandla5Daniel Ambriz6Anna-Lisa Paul7Department of Horticultural Sciences, University of FloridaDepartment of Horticultural Sciences, University of FloridaDepartment of Horticultural Sciences, University of FloridaDepartment of Horticultural Sciences, University of FloridaDepartment of Horticultural Sciences, University of FloridaVirgin GalacticVirgin GalacticDepartment of Horticultural Sciences, University of FloridaAbstract The Virgin Galactic Unity 22 mission conducted the first astronaut-manipulated suborbital spaceflight experiment. The experiment examined the operationalization of Kennedy Space Center Fixation Tubes (KFTs) as a generalizable approach to preserving biology at various phases of suborbital flight. The biology chosen for this experiment was Arabidopsis thaliana, ecotype Col-0, because of the plant history of spaceflight experimentation within KFTs and wealth of comparative data from orbital experiments. KFTs were deployed as a wearable device, a leg pouch attached to the astronaut, which proved to be operationally effective during the course of the flight. Data from the inflight samples indicated that the microgravity period of the flight elicited the strongest transcriptomic responses as measured by the number of genes showing differential expression. Genes related to reactive oxygen species and stress, as well as genes associated with orbital spaceflight, were highly represented among the suborbital gene expression profile. In addition, gene families largely unaffected in orbital spaceflight were diversely regulated in suborbital flight, including stress-responsive transcription factors. The human-tended suborbital experiment demonstrated the operational effectiveness of the KFTs in suborbital flight and suggests that rapid transcriptomic responses are a part of the temporal dynamics at the beginning of physiological adaptation to spaceflight.https://doi.org/10.1038/s41526-023-00340-w
spellingShingle Robert J. Ferl
Mingqi Zhou
Hunter F. Strickland
Natasha J. Haveman
Jordan B. Callaham
Sirisha Bandla
Daniel Ambriz
Anna-Lisa Paul
Transcriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflight
npj Microgravity
title Transcriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflight
title_full Transcriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflight
title_fullStr Transcriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflight
title_full_unstemmed Transcriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflight
title_short Transcriptomic dynamics in the transition from ground to space are revealed by Virgin Galactic human-tended suborbital spaceflight
title_sort transcriptomic dynamics in the transition from ground to space are revealed by virgin galactic human tended suborbital spaceflight
url https://doi.org/10.1038/s41526-023-00340-w
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