活性氧
NADPH氧化酶
氮氧化物1
真菌
多细胞生物
超氧化物
生物
细胞生物学
选择性氧化酶
功能(生物学)
氧化酶试验
寄主(生物学)
生物化学
微生物学
菌丝
菌丝体
线粒体
酶
植物
基因
生态学
出处
期刊:Journal of Microbiology and Biotechnology
[Springer Science+Business Media]
日期:2014-11-28
卷期号:24 (11): 1455-1463
被引量:21
标识
DOI:10.4014/jmb.1407.07072
摘要
In the past, reactive oxygen species (ROS) have been considered a harmful byproduct of aerobic metabolism. However, accumulating evidence implicates redox homeostasis, which maintains appropriate ROS levels, in cell proliferation and differentiation in plants and animals. Similarly, ROS generation and signaling are instrumental in fungal development and host-fungus interaction. In fungi, NADPH oxidase, a homolog of human gp91(phox), generates superoxide and is the main source of ROS. The mechanism of activation and signaling by NADPH oxidases in fungi appears to be largely comparable to those in plants and animals. Recent studies have shown that the fungal NADPH oxidase homologs NoxA (Nox1), NoxB (Nox2), and NoxC (Nox3) have distinct functions. In particular, these studies have consistently demonstrated the impact of NoxA on the development of fungal multicellular structures. Both NoxA and NoxB (but not NoxC) are involved in host-fungus interactions, with the function of NoxA being more critical than that of NoxB.
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