小分子
化学
斑马鱼
血红蛋白
运输机
吸收(声学)
生物物理学
生物化学
酵母
细胞生物学
生物
基因
材料科学
复合材料
作者
Anthony S. Grillo,Anna M. SantaMaria,Martin D. Kafina,Alexander G. Cioffi,Nicholas C. Huston,Murui Han,Young Ah Seo,Yvette Y. Yien,Christopher Nardone,Archita V. Menon,James Fan,Dillon C. Svoboda,Jacob B. Anderson,John D. Hong,Bruno G. Nicolau,Kiran Subedi,Andrew A. Gewirth,Marianne Wessling‐Resnick,Jonghan Kim,Barry H. Paw
出处
期刊:Science
[American Association for the Advancement of Science]
日期:2017-05-11
卷期号:356 (6338): 608-616
被引量:149
标识
DOI:10.1126/science.aah3862
摘要
Multiple human diseases ensue from a hereditary or acquired deficiency of iron-transporting protein function that diminishes transmembrane iron flux in distinct sites and directions. Because other iron-transport proteins remain active, labile iron gradients build up across the corresponding protein-deficient membranes. Here we report that a small-molecule natural product, hinokitiol, can harness such gradients to restore iron transport into, within, and/or out of cells. The same compound promotes gut iron absorption in DMT1-deficient rats and ferroportin-deficient mice, as well as hemoglobinization in DMT1- and mitoferrin-deficient zebrafish. These findings illuminate a general mechanistic framework for small molecule-mediated site- and direction-selective restoration of iron transport. They also suggest that small molecules that partially mimic the function of missing protein transporters of iron, and possibly other ions, may have potential in treating human diseases.
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