Oommen Anup Mammen, Stafford Phillip, Joshi Lokesh
Advanced Glycoscience Research Cluster (AGRC), University of Galway, Galway, Ireland.
Arizona State University, School of Life Sciences, Biodesign Institute, Arizona, USA.
NPJ Microgravity. 2024 Oct 4;10(1):94. doi: 10.1038/s41526-024-00434-z.
Space exploration's advancement toward long-duration missions prompts intensified research on physiological effects. Despite adaptive physiological stability in some variables, persistent changes affect genome integrity, immune response, and cognitive function. Our study, utilizing multi-omics data from GeneLab, provides crucial insights investigating muscle atrophy during space mission. Leveraging NASA GeneLab's data resources, we apply systems biology-based analyses, facilitating comprehensive understanding and enabling meta-analysis. Through transcriptomics, we establish a reference profile of biological processes underlying muscle atrophy, crucial for intervention development. We emphasize the often-overlooked role of glycosylation in muscle atrophy. Our research sheds light on fundamental molecular mechanisms, bridging gaps between space research and terrestrial conditions. This study underscores the importance of interdisciplinary collaboration and data-sharing initiatives like GeneLab in advancing space medicine research.
太空探索向长期任务的推进促使对生理效应的研究不断加强。尽管在某些变量上存在适应性生理稳定性,但持续的变化会影响基因组完整性、免疫反应和认知功能。我们的研究利用来自基因实验室(GeneLab)的多组学数据,为调查太空任务期间的肌肉萎缩提供了重要见解。借助美国国家航空航天局(NASA)基因实验室的数据资源,我们应用基于系统生物学的分析方法,促进全面理解并实现荟萃分析。通过转录组学,我们建立了肌肉萎缩背后生物过程的参考概况,这对干预措施的开发至关重要。我们强调糖基化在肌肉萎缩中常被忽视的作用。我们的研究揭示了基本分子机制,弥合了太空研究与地面条件之间的差距。这项研究强调了跨学科合作以及像基因实验室这样的数据共享计划在推进太空医学研究方面的重要性。