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Biglycan reduces body weight by regulating food intake in mice and improves glucose metabolism through AMPK/AKT dual pathways in skeletal muscle

Title
Biglycan reduces body weight by regulating food intake in mice and improves glucose metabolism through AMPK/AKT dual pathways in skeletal muscle
Author(s)
Chung, InHyeokKim, Shin AeKim, SeolsongLee, Jung OkPark, Clara YongjooLee, JuheeKang, JunLee, Jin YoungSeo, IlheokLee, Hye JeongHan, Jeong AhKang, Min JuLim, EuniceKim, Su JinWu, Sang WooOh, Joo YeonChung, Ji HyungKim, Eun-KyoungKim, Hyeon SooShin, Min-Jeong
Issued Date
2021-08
Citation
FASEB Journal, v.35, no.8, pp.e21794
Type
Article
Author Keywords
AKTAMPKbiglycanfood intakeglucose uptakeobesity
Keywords
PROTEIN-KINASEINSULIN-RESISTANCETOLL-LIKEEXPRESSIONEXERCISEDECORINPROTEOGLYCANSHEALTHCONTRACTIONNEURONS
ISSN
0892-6638
Abstract
While biglycan (BGN) is suggested to direct diverse signaling cascades, the effects of soluble BGN as a ligand on metabolic traits have not been studied. Herein, we tested the effects of BGN on obesity in high-fat diet (HFD)-induced obese animals and glucose metabolism, with the underlying mechanism responsible for observed effects in vitro. Our results showed that BGN administration (1mg/kg body weight, intraperitoneally) significantly prevented HFD-induced obesity, and this was mainly attributed to reduced food intake. Also, intracerebroventricular injection of BGN reduced food intake and body weight. The underlying mechanism includes modulation of neuropeptides gene expression involved in appetite in the hypothalamus in vitro and in vivo. In addition, BGN regulates glucose metabolism as shown by improved glucose tolerance in mice as well as AMPK/AKT dual pathway-driven enhanced glucose uptake and GLUT4 translocation in L6 myoblast cells. In conclusion, our results suggest BGN as a potential therapeutic target to treat risk factors for metabolic diseases. © 2021 Federation of American Societies for Experimental Biology
URI
http://hdl.handle.net/20.500.11750/15496
DOI
10.1096/fj.202002039RR
Publisher
Federation of American Societies for Experimental Biology
Related Researcher
  • 김은경 Kim, Eun-Kyoung
  • Research Interests Neural functions in metabolic diseases; 뇌신경세포와 비만; 당뇨 등의 대사 질환 관련 연구
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Department of Brain Sciences Lab of Neuro-Metabolism & Neurometabolomic Research Center 1. Journal Articles

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