Development and characterization of a low intensity vibrational system for microgravity studies

Extended-duration human spaceflight necessitates a better understanding of the physiological impacts of microgravity. While the ground-based microgravity simulations identified low intensity vibration (LIV) as a possible countermeasure, how cells may respond to LIV under real microgravity remain unexplored. In this way, adaptation of LIV bioreactors for space remains limited, resulting in a significant gap in microgravity research. In this study, we introduce an LIV bioreactor designed specifically for the usage in the International Space Station. Our research covers the bioreactor's design process and evaluation of the short-term viability of cells encapsulated in hydrogel-laden 3D printed scaffolds under 0.7 g, 90 Hz LIV. An LIV bioreactor compatible with the operation requirements of space missions provides a robust platform to study cellular effects of LIV under real microgravity conditions.

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Publication Details

Journal
npj Microgravity
Published
2024-11-20
DOI
https://doi.org/10.1038/s41526-024-00444-x
Primary Topic
Spaceflight effects on biology
Type
article
Field-Weighted Citation Impact
0.00

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article

Development and characterization of a low intensity vibrational system for microgravity studies

Twyman Clements, Gunes Uzer, Zach Jacobs, Aykut C. Satici et al.
npj Microgravity
Spaceflight effects on biology
article

Development and characterization of a low intensity vibrational system for microgravity studies

Twyman Clements, Gunes Uzer, Zach Jacobs, Aykut C. Satici, Anamaria G. Zavala, Sean Howard, Maximilien DeLeon, Elizabeth A. Blaber, Mary C. Farach‐Carson, S. G. Perry, Jason Rexroat, Kendall Nelson, Danielle Wu, Paul Gamble, Will Gasperini, Chess Necessary, Omor Khan
article en

Abstract

Extended-duration human spaceflight necessitates a better understanding of the physiological impacts of microgravity. While the ground-based microgravity simulations identified low intensity vibration (LIV) as a possible countermeasure, how cells may respond to LIV under real microgravity remain unexplored. In this way, adaptation of LIV bioreactors for space remains limited, resulting in a significant gap in microgravity research. In this study, we introduce an LIV bioreactor designed specifically for the usage in the International Space Station. Our research covers the bioreactor's design process and evaluation of the short-term viability of cells encapsulated in hydrogel-laden 3D printed scaffolds under 0.7 g, 90 Hz LIV. An LIV bioreactor compatible with the operation requirements of space missions provides a robust platform to study cellular effects of LIV under real microgravity conditions.

npj MicrogravityVol. 10(1)
Boise State University (US), Rensselaer Polytechnic Institute (US), Rice University (US)
National Science Foundation
Openalex Percentile: Top 70%
Spaceflight effects on biology
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