Mini ReviewPublished 8 October 2026Artificial gravity for long-duration human spaceflight: physiological rationale, evidence gaps, risks, and research prioritiesMarine Briard · Sarah BaatoutFrontiers in Space Technologiesdoi 10.3389/frspt.2026.1967384
Mini ReviewPublished 8 October 2026Sleep and circadian disruption during human spaceflight: mechanisms, operational consequences, and countermeasuresMerel Goedegebure · Sarah BaatoutFrontiers in Space Technologiesdoi 10.3389/frspt.2026.1958668
ReviewPublished 8 October 2026Integrating cortical microtubules into plant gravity signaling: dynamics, tubulin phosphorylation, and growth regulationMd Sifatul Islam · Sarah E. WyattFrontiers in Plant Sciencedoi 10.3389/fpls.2026.1970801
Original ResearchPublished 2 October 2026Electrospun poly(vinyl alcohol)/hyaluronic acid nanofiber mats for wound care in space: cytocompatibility and effects of UV-C treatment and simulated microgravityGianluca Ciarleglio · Alessia Di Pauli · Marika Berardini · Federica Campolo · Angela Catizone · Maria Gabriella SantonicolaFrontiers in Bioengineering and Biotechnologydoi 10.3389/fbioe.2026.1946755
ReviewPublished 22 September 2026Microbial responses to microgravity and consequences for plant-microbe interactions in spaceDaphné Golaz · Marcel Egli · Gabriella PessiFrontiers in Astronomy and Space Sciencesdoi 10.3389/fspas.2026.1864382
Mini ReviewPublished 28 August 2026Microgravity- induced organ and system-level deconditioning: a network physiology perspectiveRashmi Neginhal · Rebecca Rejo GeorgeFrontiers in Network Physiologydoi 10.3389/fnetp.2026.1931834
PerspectivePublished 30 July 2026Monitoring and modulating interconnected physiological systems in space using portable closed-loop technologiesEnrico De Martino · Peng Lyu · Ikram Brahim · Mehaboobathunnisa Sahul Hameed · Lars Arendt-Nielsen · Yacine HadjiatFrontiers in Network Physiologydoi 10.3389/fnetp.2026.1867627
PerspectivePublished 24 June 2026A concept for a European human rated microgravity and partial gravity research and testing facilitySimon L. Wuest · Seraina Braun-Badertscher · Andreas Gierse · Mauro Gotsch · Kilian SchusterFrontiers in Space Technologiesdoi 10.3389/frspt.2026.1822358
Hypothesis and TheoryPublished 24 April 2026Network physiology in space: vision and perspectives on exploring physiological networks during spaceflight for the benefit of life on earthNandu Goswami · Jerry Joseph Batzel · Yaopeng J. X. Ma · Per Morten Fredriksen · David Andrew Green · Plamen Ch. IvanovFrontiers in Network Physiologydoi 10.3389/fnetp.2026.1817815
Original ResearchPublished 18 March 2026Beneficial microbes mitigate molecular stress responses and accelerate developmental pathways in host animals during spaceflightEric J. Koch · Ana Conesa · Timothy J. Garrett · Rachel Ormsby · Ryan Bohl · David W. Reed · Jamie S. FosterFrontiers in Space Technologiesdoi 10.3389/frspt.2026.1791484
PerspectivePublished 6 January 2026Enabling living in space through modern innovations in space medicine: a perspective on tissue-on-a-chip technologySubhajit Hazra · Sibsankar Palit · Thais Russomano · Gaurab Ghosh · Polash SannigrahiFrontiers in Space Technologiesdoi 10.3389/frspt.2025.1725575
Space TechnologiesPublished 31 October 2025Biological impacts of hypomagnetic fields in space environment: implications for artificial magnetic field provision in long-duration spaceflightNhat Dang · Jason Keller · Frank BarnesFrontiers in Space Technologiesdoi 10.3389/frspt.2025.1704391
Space TechnologiesPublished 25 September 2025Cytoskeleton changes of mammalian cells in microgravity: results from three decades of low-gravity researchSimon L. WuestFrontiers in Space Technologiesdoi 10.3389/frspt.2025.1677728
Lab on a Chip TechnologiesPublished 4 June 2025Editorial: Celebrating 1 year of Frontiers in lab on a chip technologiesMichael G. MaukFrontiers in Lab on a Chip Technologiesdoi 10.3389/frlct.2025.1604411
Space TechnologiesPublished 30 April 2025Microbial contamination and pharmaceutical stability in space environment: addressing dual challenge with innovative technologies and sustainable practicesManali Patel · Priya Patel · Nasreen S. Munshi · Shikha Patel · Shrushti Patil · Anshu Srivastva · Jibin Dhanraj · Raviteja Duggineni · Priti MehtaFrontiers in Space Technologiesdoi 10.3389/frspt.2025.1553854
Space TechnologiesPublished 1 April 2025Improved biochemical properties of roots of selected economic crops after simulated microgravity impactFunmilola A. Oluwafemi · Omodele Ibraheem · Afolabi R. OlubiyiFrontiers in Space Technologiesdoi 10.3389/frspt.2025.1552919
Health ArchivePublished 20 December 2024Womb, gravity, and space: shifting towards the cerebellum-basal ganglia paradigm in dystoniaDiego IaconoDystoniadoi 10.3389/dyst.2024.13871
Lab on a Chip TechnologiesPublished 7 March 2024Organs in orbit: how tissue chip technology benefits from microgravity, a perspectiveAditi Jogdand · Maxwell Landolina · Yupeng ChenFrontiers in Lab on a Chip Technologiesdoi 10.3389/frlct.2024.1356688
Metals and AlloysPublished 14 July 2022Analysis of the Solidification Process of Metal Alloys Under Microgravity ConditionsHasse FredrikssonFrontiers in Metals and Alloysdoi 10.3389/ftmal.2022.912723