Vilén Liisa K, Atosuo Janne, Lilius Esa-Matti
Department of Biochemistry, University of Turku, Turku, Finland.
Front Immunol. 2017 Jul 28;8:887. doi: 10.3389/fimmu.2017.00887. eCollection 2017.
This perspective presents a viewpoint on potential methods assessing toxicity of indoor air. Until recently, the major techniques to document moldy environment have been microbial isolation using conventional culture techniques for fungi and bacteria as well as in some instances polymerase chain reaction to detect microbial genetic components. However, it has become increasingly evident that bacterial and fungal toxins, their metabolic products, and volatile organic substances emitted from corrupted constructions are the major health risks. Here, we illustrate how phagocytes, especially neutrophils can be used as a toxicological probe. Neutrophils can be used either as probe cells, directly exposed to the toxic agent studied, or they can act as indicators of the whole biological system exposed to the agent. There are two convenient methods assessing the responses, one is to measure chemiluminescence emission from activated phagocytes and the other is to measure quantitatively by flow cytometry the expression of complement and immunoglobulin receptors on the phagocyte surface.
这一观点提出了关于评估室内空气毒性潜在方法的一种视角。直到最近,记录发霉环境的主要技术一直是使用针对真菌和细菌的传统培养技术进行微生物分离,以及在某些情况下使用聚合酶链反应来检测微生物遗传成分。然而,越来越明显的是,来自受损建筑中释放的细菌和真菌毒素、它们的代谢产物以及挥发性有机物质是主要的健康风险。在此,我们阐述了吞噬细胞,尤其是中性粒细胞如何能够用作毒理学探针。中性粒细胞既可以作为探针细胞,直接暴露于所研究的有毒物质,也可以作为暴露于该物质的整个生物系统的指标。有两种便捷的方法来评估反应,一种是测量活化吞噬细胞发出的化学发光,另一种是通过流式细胞术定量测量吞噬细胞表面补体和免疫球蛋白受体的表达。