化学伴侣子、金牛座脱氧胆酸处理对牙齿发育中细胞事件的改变

Eui-Seon Lee, Y. P. Aryal, Tae-Young Kim, Elina Pokharel, Harim Kim, S. Sung, Wern-Joo Sohn, Lee Youngkyun, Chang-Hyeon An, K. J. Young
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引用次数: 0

摘要

一些因素,包括遗传和环境的损害,阻碍蛋白质折叠和内质网(ER)的分泌。未折叠或错误折叠的蛋白在内质网中的积累表现为内质网应激。为了应对内质网的这种病态状况,最近的数据表明,未折叠蛋白反应的细胞内事件在管理内质网的分泌负荷和维持蛋白质平衡方面起着关键作用。牛磺酸去氧胆酸(TUDCA)是一种化学伴侣和亲水性胆汁酸,已知通过减轻内质膜应激来抑制细胞凋亡。大量研究表明,TUDCA影响肝脏疾病、肥胖和炎症性疾病。近年来,人们对内质网应激在牙齿发育特别是分泌阶段的分子调控进行了研究。因此,在本研究中,我们采用化学伴侣处理(TUDCA)的体外器官培养方法,研究内质网应激调节在牙齿形态发生中的发育作用。使用免疫染色和末端脱氧核苷酸转移酶dUTP缺口末端标记法检测细胞增生、凋亡和牙本质发生等改变的细胞事件。此外,研究人员还检测了与淀粉原蛋白和巢蛋白等分子相关的硬组织基质形成的定位模式的改变,以评估其形态学变化。基于我们的研究结果,调节化学伴侣蛋白TUDCA在牙齿形态发生中的作用,特别是通过调节细胞增殖和凋亡,可以作为未来牙齿再生研究的支持数据。
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Alteration of cellular events in tooth development by chemical chaperon, Tauroursodeoxycholic acid treatment
Several factors, including genetic and environmental insults, impede protein folding and secretion in the endoplasmic reticulum (ER). Accumulation of unfolded or mis-folded protein in the ER manifests as ER stress. To cope with this morbid condition of the ER, recent data has suggested that the intracellular event of an unfolded protein response plays a critical role in managing the secretory load and maintaining proteostasis in the ER. Tauroursodeoxycholic acid (TUDCA) is a chemical chaperone and hydrophilic bile acid that is known to inhibit apoptosis by attenuating ER stress. Numerous studies have revealed that TUDCA affects hepatic diseases, obesity, and inflammatory illnesses. Recently, molecular regulation of ER stress in tooth development, especially during the secretory stage, has been studied. Therefore, in this study, we examined the developmental role of ER stress regulation in tooth morphogenesis using in vitro organ cultivation methods with a chemical chaperone treatment, TUDCA. Altered cellular events including proliferation, apoptosis, and dentinogenesis were examined using immunostaining and terminal deoxynucleotidyl transferase dUTP nick end labeling assay. In addition, altered localization patterns of the formation of hard tissue matrices related to molecules, including amelogenin and nestin, were examined to assess their morphological changes. Based on our findings, modulating the role of the chemical chaperone TUDCA in tooth morphogenesis, especially through the modulation of cellular proliferation and apoptosis, could be applied as a supporting data for tooth regeneration for future studies.
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