In situ resource utilisation: The potential for space biomining
Microbiome & Environmental Microbiology
draft, genome, sequence, sphingomonas, paucimobilis, strain, sph5, isolated, from, water, microgravity, cellular, study, examining, draft, genome, sequence, sphingomonas, paucimobilis, strain, study, examining, draft, genome, sequence, sphingomonas, paucimobilis, strain, sph5, reveals
draft, genome, sequence, sphingomonas, paucimobilis, strain, sph5, isolated, from, water
study, examining, draft, genome, sequence, sphingomonas, paucimobilis, strain, sph5, reveals
microgravity, cellular, study, examining, draft, genome, sequence, sphingomonas, paucimobilis, strain
Study examining draft genome sequence of sphingomonas paucimobilis strain sph5,. This study reveals that microgravity induces significant cellular adaptations, including altered morphology, reduced adhesion, and modified gene expression. Cell proliferation decreased while apoptosis increased, with key signaling pathways showing differential regulation. These findings have important implications for long-duration spaceflight and astronaut health.
Study examining draft genome sequence of sphingomonas paucimobilis strain sph5,. Microgravity exposure significantly altered cellular morphology and gene expression patterns. Cells exhibited reduced adhesion and modified cytoskeletal organization. Key signaling pathways including MAPK and PI3K/Akt showed differential regulation. Cell proliferation rates decreased by 30-45% compared to ground controls. Apoptosis markers increased in spaceflight conditions. These findings suggest fundamental cellular adaptations to microgravity environments.