How Arsenic, an Inorganic Pollutant, is Involved in the Physiology of Biomolecular Condensates in the Cell

Osamu Udagawa, S. Hirano
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引用次数: 2

Abstract

The existence of membrane-less organelles in the cells has been known for a relatively long time. Of the membrane-less organelles, stress granules, processing bodies, and PML-NBs have been intensively investigated in relation to arsenic. The membrane-less organelles, which concentrate biomolecules (proteins, nucleic acids), have recently been shown to self-organize by means of phase separation/transition. These biomolecular condensates (membrane-less organelles) can provide local enhancement of the efficiency of specific reactions. The biomolecular condensates have attracted dramatic attention over the last decade because highly organized biochemical complexes in the cell have long been understood by the membrane-dependent compartmentalization. In this mini review, we highlight the initiation of phase separation for each biomolecular condensate in which arsenic could be involved. We further reflect on the adequacy of the arsenic-dependent ROS levels for the formation of biomolecular condensates. These perspectives led us to re-evaluate the biological action of arsenic from a biophysical and bio-rheological point of view.
砷,一种无机污染物,如何参与细胞中生物分子凝聚物的生理学
细胞中无膜细胞器的存在已经为人们所知了相当长的时间。无膜细胞器、应力颗粒、加工体和PML-NBs与砷的关系已被深入研究。无膜细胞器,浓缩生物分子(蛋白质,核酸),最近被证明通过相分离/转变的方式自组织。这些生物分子凝聚物(无膜细胞器)可以局部增强特定反应的效率。生物分子凝聚物在过去十年中引起了极大的关注,因为细胞中高度组织化的生化复合物长期以来一直被膜依赖性区隔化所理解。在这篇综述中,我们重点介绍了砷可能涉及的每个生物分子凝聚物的相分离起始。我们进一步反映了砷依赖的ROS水平对生物分子凝聚物形成的充分性。这些观点促使我们从生物物理和生物流变的角度重新评价砷的生物作用。
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