Cationic Polystyrene Resolves Nonalcoholic Steatohepatitis, Obesity, and Metabolic Disorders by Promoting Eubiosis of Gut Microbiota and Decreasing Endotoxemia
Author(s) -
Airu Zhu,
Jingjing Chen,
Pengfei Wu,
Mei Luo,
Yilan Zeng,
Yong Liu,
Zheng Han,
Li Zhang,
Zishou Chen,
Qun Sun,
Wenwen Li,
Yixiang Duan,
Danmei Su,
ZhiXiong Jim Xiao,
Zhongping Duan,
Sujun Zheng,
Bai Li,
Xiaohui Zhang,
Zhongyuan Ju,
Li Yan,
Richard Hu,
Stephen J. Pandol,
YuanPing Han
Publication year - 2017
Publication title -
diabetes
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 3.219
H-Index - 330
eISSN - 1939-327X
pISSN - 0012-1797
DOI - 10.2337/db17-0070
Subject(s) - dysbiosis , cholestyramine , akkermansia muciniphila , gut flora , nonalcoholic fatty liver disease , steatohepatitis , medicine , firmicutes , akkermansia , inflammation , endocrinology , biology , immunology , microbiology and biotechnology , fatty liver , biochemistry , bacteroides , disease , bacteria , cholesterol , genetics , 16s ribosomal rna , gene
A pandemic of metabolic diseases, consisting of type 2 diabetes, nonalcoholic fatty liver disease, and obesity, has imposed critical challenges for societies worldwide, prompting investigation of underlying mechanisms and exploration of low-cost and effective treatment. In this report, we demonstrate that metabolic disorders in mice generated by feeding with a high-fat diet without dietary vitamin D can be prevented by oral administration of polycationic amine resin. Oral administration of cholestyramine, but not the control uncharged polystyrene, was able to sequester negatively charged bacterial endotoxin in the gut, leading to 1 ) reduced plasma endotoxin levels, 2 ) resolved systemic inflammation and hepatic steatohepatitis, and 3 ) improved insulin sensitivity. Gut dysbiosis, characterized as an increase of the phylum Firmicutes and a decrease of Bacteroidetes and Akkermansia muciniphila, was fully corrected by cholestyramine, indicating that the negatively charged components in the gut are critical for the dysbiosis. Furthermore, fecal bacteria transplant, derived from cholestyramine-treated animals, was sufficient to antagonize the metabolic disorders of the recipient mice. These results indicate that the negatively charged components produced by dysbiosis are critical for biogenesis of metabolic disorders and also show a potential application of cationic polystyrene to treat metabolic disorders through promoting gut eubiosis.
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