Growth differentiation factor 15 is a glucose-downregulated gene acting as the cross talk between stroma and cancer cells of the human bladder.

IF 5 2区 生物学 Q2 CELL BIOLOGY
Kang-Shuo Chang, Syue-Ting Chen, Wei-Yin Lin, Shu-Yuan Hsu, Hsin-Ching Sung, Yu-Hsiang Lin, Tsui-Hsia Feng, Chen-Pang Hou, Horng-Heng Juang
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Abstract

Hyperglycemia and hyperglycosuria, two primary characteristics of diabetes mellitus, may increase the risk of cancer initiation, particularly for bladder cancer. The effectiveness of metformin, a common antidiabetic agent, is determined by its ability to induce growth differentiation factor 15 (GDF15). However, the mechanism of the GDF15 in relation to glucose, which influences the tumor microenvironment in the human bladder, is not fully understood. This study explores the potential roles of GDF15 in response to glucose in the human bladder. High glucose treatment (30 mM) enhanced phosphorylation of AKT at S473 and AMP-activated protein kinase α1/2 (AMPKα1/2) at S485 to block the counteracting effect of metformin on the AMPK activity in bladder cancer and stroma [human bladder stromal fibroblast (HBdSF) and human bladder smooth muscle cell (HBdSMC)] cells compared with normal glucose treatment (5 mM). Metformin modulated the expressions of GDF15, NDRG1, Maspin, and epithelial-to-mesenchymal transition (EMT) markers to attenuate cell proliferation and invasion of bladder cancer cells. Caffeic acid phenethyl ester (CAPE), like metformin, behaves as an inducer of AMPK activity to stimulate GDF15 expression. Knockdown of GDF15 blocked the downregulation of CAPE on the contraction of HBdSMCs. Both CAPE-induced GDF15 expression and the supernatant from bladder cancer cells with overexpressing GDF15 impeded the HBdSF and HBdSMC migration, suggesting that CAPE-upregulated GDF15 blocked the cell migration. These findings reveal that high glucose treatment inhibits the counteracting effects of either metformin or CAPE on the AMPK activity and GDF15 is downregulated by glucose and induced by metformin and CAPE in both stroma and cancer cells. Furthermore, GDF15 is an antitumor gene facilitating communication between stroma and cancer cells in the human bladder.NEW & NOTEWORTHY This study investigates the counteraction of either CAPE or metformin with the AMPK activity increasing GDF15 expression in human bladder cells. The findings are the first study to indicate the secretion of GDF15 from cancer and stroma cells via autocrine or paracrine mechanisms. Our study suggests that GDF15, an antitumor gene in the human bladder induced by AMPK inducers, acts as a communication link between stroma and cancer cells in the human bladder.

生长分化因子15是一种葡萄糖下调基因,在人膀胱间质细胞和癌细胞之间起串扰作用。
高血糖和高糖尿是糖尿病的两个主要特征,可能会增加癌症发生的风险,尤其是膀胱癌。二甲双胍是一种常见的降糖药,其有效性取决于其诱导GDF15的能力。然而,GDF15与葡萄糖相关的影响膀胱肿瘤微环境的机制尚不完全清楚。本研究探讨了GDF15在人类膀胱中对葡萄糖的反应中的潜在作用。与正常葡萄糖处理(5 mM)相比,高糖处理(30 mM)可增强AKT在S473位点和AMPK1/2在S485位点的磷酸化,从而阻断二甲双胍对膀胱癌和间质(HBdSF和HBdSMC)细胞中AMPK活性的抑制作用。二甲双胍通过调节GDF15、NDRG1、Maspin和EMT标记物的表达来减弱膀胱癌细胞的增殖和侵袭。CAPE与二甲双胍一样,作为AMPK活性的诱导剂刺激GDF15的表达。GDF15的敲低阻断了CAPE对HBdSMC细胞收缩的下调。cape诱导的GDF15表达和GDF15过表达膀胱癌细胞的上清液均能抑制HBdSF和HBdSMC细胞的迁移,提示cape上调GDF15可阻断细胞迁移。这些发现表明,高糖处理抑制二甲双胍或CAPE对AMPK活性的抵消作用,并且在基质细胞和癌细胞中,GDF15被葡萄糖下调并被二甲双胍和CAPE诱导。此外,GDF15是一种抗肿瘤基因,促进人膀胱间质细胞和癌细胞之间的交流。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
9.10
自引率
1.80%
发文量
252
审稿时长
1 months
期刊介绍: The American Journal of Physiology-Cell Physiology is dedicated to innovative approaches to the study of cell and molecular physiology. Contributions that use cellular and molecular approaches to shed light on mechanisms of physiological control at higher levels of organization also appear regularly. Manuscripts dealing with the structure and function of cell membranes, contractile systems, cellular organelles, and membrane channels, transporters, and pumps are encouraged. Studies dealing with integrated regulation of cellular function, including mechanisms of signal transduction, development, gene expression, cell-to-cell interactions, and the cell physiology of pathophysiological states, are also eagerly sought. Interdisciplinary studies that apply the approaches of biochemistry, biophysics, molecular biology, morphology, and immunology to the determination of new principles in cell physiology are especially welcome.
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