Molecular and physiological changes in the SpaceX Inspiration4 civilian crew
Author:
Jones Christopher W.ORCID, Overbey Eliah G.ORCID, Lacombe Jerome, Ecker Adrian J., Meydan CemORCID, Ryon Krista, Tierney BradenORCID, Damle Namita, MacKay Matthew, Afshin Evan E., Foox Jonathan, Park JiwoonORCID, Nelson Theodore M.ORCID, Suhail Mohamad Mir, Byhaqui Syed Gufran Ahmad, Aslam Burhan, Tali Ummer Akbar, Nisa Liaqun, Menon Priya V., Patel Chintan O., Khan Sharib A., Ebert Doug J., Everson Aaron, Schubert Michael C., Ali Nabila N., Sarma Mallika S.ORCID, Kim JangKeunORCID, Houerbi Nadia, Grigorev KirillORCID, Garcia Medina J. Sebastian, Summers Alexander J.ORCID, Gu Jian, Altin John A., Fattahi AliORCID, Hirzallah Mohammad I.ORCID, Wu Jimmy H., Stahn Alexander C.ORCID, Beheshti AfshinORCID, Klotz Remi, Ortiz Veronica, Yu Min, Patras Laura, Matei IrinaORCID, Lyden DavidORCID, Melnick AriORCID, Banerjee NeilORCID, Mullane Sean, Kleinman Ashley S., Loesche Michael, Menon Anil S.ORCID, Donoviel Dorit B., Urquieta Emmanuel, Mateus Jaime, Sargsyan Ashot E., Shelhamer Mark, Zenhausern Frederic, Bershad Eric M., Basner MathiasORCID, Mason Christopher E.ORCID
Abstract
AbstractHuman spaceflight has historically been managed by government agencies, such as in the NASA Twins Study1, but new commercial spaceflight opportunities have opened spaceflight to a broader population. In 2021, the SpaceX Inspiration4 mission launched the first all-civilian crew to low Earth orbit, which included the youngest American astronaut (aged 29), new in-flight experimental technologies (handheld ultrasound imaging, smartwatch wearables and immune profiling), ocular alignment measurements and new protocols for in-depth, multi-omic molecular and cellular profiling. Here we report the primary findings from the 3-day spaceflight mission, which induced a broad range of physiological and stress responses, neurovestibular changes indexed by ocular misalignment, and altered neurocognitive functioning, some of which match those of long-term spaceflight2, but almost all of which did not differ from baseline (pre-flight) after return to Earth. Overall, these preliminary civilian spaceflight data suggest that short-duration missions do not pose a significant health risk, and moreover present a rich opportunity to measure the earliest phases of adaptation to spaceflight in the human body at anatomical, cellular, physiological and cognitive levels. Finally, these methods and results lay the foundation for an open, rapidly expanding biomedical database for astronauts3, which can inform countermeasure development for both private and government-sponsored space missions.
Publisher
Springer Science and Business Media LLC
Reference72 articles.
1. Garrett-Bakelman, F. E. et al. The NASA Twins Study: a multidimensional analysis of a year-long human spaceflight. Science 364, eaau8650 (2019). 2. Afshinnekoo, E. et al. Fundamental biological features of spaceflight: advancing the field to enable deep-space exploration. Cell 183, 1162–1184 (2020). 3. Urquieta, E., Wu, J., Hury, J. & Donoviel, D. Establishment of an open biomedical database for commercial spaceflight. Nat. Med. 28, 611–612 (2022). 4. Kim, J. et al. Single-cell multi-ome and immune profiles of the Inspiration4 crew reveal cell-type, sex, and microbiome-specific responses and recovery. Nat. Commun. 15, 4954 (2024). 5. Overbey, E. G. et al. The Space Omics and Medical Atlas (SOMA): a comprehensive data resource and international biobank for astronauts. Nature https://doi.org/10.1038/s41586-024-07639-y (2024).
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