Department of Biomolecular Chemistry, University of Wisconsin, Madison, WI, 53706, USA.
National Center for Quantitative Biology of Complex Systems, Madison, WI 53706, USA.
Mol Omics. 2022 May 11;18(4):279-295. doi: 10.1039/d1mo00271f.
By characterizing physiological changes that occur in warfighters during simulated combat, we can start to unravel the key biomolecular components that are linked to physical and cognitive performance. Viable field-based sensors for the warfighter must be rapid and noninvasive. In an effort to facilitate this, we applied a multiomics pipeline to characterize the stress response in the saliva of warfighters to correlate biomolecular changes with overall performance and health. In this study, two different stress models were observed - one of chronic stress and one of acute stress. In both models, significant perturbations in the immune, metabolic, and protein manufacturing/processing systems were observed. However, when differentiating between stress models, specific metabolites associated with the "fight or flight" response and protein folding were seen to be discriminate of the acute stress model.
通过描述模拟战斗中战士的生理变化,我们可以开始揭示与身体和认知表现相关的关键生物分子组成部分。可行的战场战士用传感器必须快速且无创。为了促进这一点,我们应用了一种多组学管道来描述战士唾液中的应激反应,以将生物分子变化与整体表现和健康相关联。在这项研究中,观察到了两种不同的应激模型 - 一种是慢性应激,另一种是急性应激。在这两种模型中,都观察到免疫、代谢和蛋白质制造/加工系统的显著扰动。然而,在区分应激模型时,与“战斗或逃跑”反应和蛋白质折叠相关的特定代谢物被认为可以区分急性应激模型。