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利用无线电电能非对称传递(REAC)技术避免模拟微重力下 T 细胞反应性丧失。

Radio Electric Asymmetric Conveyer (REAC) technology to obviate loss of T cell responsiveness under simulated microgravity.

机构信息

Research Department, Rinaldi Fontani Foundation, Florence, Italy.

Department of Regenerative and Anti-Aging Medicine, Rinaldi Fontani Institute, Florence, Italy.

出版信息

PLoS One. 2018 Jul 6;13(7):e0200128. doi: 10.1371/journal.pone.0200128. eCollection 2018.

Abstract

Alterations of the gravitational environment are likely to modify cell behavior. Several studies have proven that T cells are sensitive to gravity alterations and that microgravity conditions may induce immunosuppression and weakened T cell immune response in humans during spaceflights. The aim of this work was to elucidate if a specific treatment of Radio Electric Asymmetric Conveyer (REAC) technology could restore, after mitogenic activation (Con A), a correct expression of cytokine IL2 gene and its receptor IL2R alpha, which are inhibited in T cells under microgravity conditions, as demonstrated in several studies. The results of this study, conducted in microgravity simulated with Random Positioning Machine (RPM), confirm the T cell activation recovery and offer the evidence that REAC technology could contribute to the understanding of T cell growth responsiveness in space, reducing the impact of weightlessness on the immune system experienced by humans in long duration space missions.

摘要

重力环境的改变可能会改变细胞的行为。有几项研究已经证明,T 细胞对重力变化敏感,微重力条件可能会在人类的太空飞行中引起免疫抑制和减弱 T 细胞免疫反应。这项工作的目的是阐明放射性电动不对称输送(REAC)技术的一种特殊处理是否可以在有丝分裂原激活(Con A)后恢复细胞因子 IL2 基因及其受体 IL2R alpha 的正确表达,正如在几项研究中证明的那样,在微重力条件下,T 细胞中的这些基因和受体受到抑制。这项在随机定位机(RPM)模拟微重力下进行的研究的结果证实了 T 细胞的激活恢复,并提供了证据,表明 REAC 技术可能有助于理解太空飞行中 T 细胞生长的反应性,从而减轻人类在长期太空任务中经历的微重力对免疫系统的影响。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/014b/6034838/d2d6c67955eb/pone.0200128.g001.jpg

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