Effects of light on the circadian rhythm of diabetic rats under restricted feeding
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- 作者：Tao Wu (1)
Fen ZhuGe (1)
Yali Zhu (1)
Nan Wang (1)
Qianru Jiang (1)
Haoxuan Fu (1)
Yongjun Li (1)
Zhengwei Fu (1) - 关键词：Clock genes ; Type 2 diabetes ; Pineal gland ; Liver ; Heart
- 刊名：Journal of Physiology and Biochemistry
- 出版年：2014
- 出版时间：March 2014
- 年：2014
- 卷：70
- 期：1
- 页码：61-71
- 全文大小：362 KB
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Fen ZhuGe (1)
Yali Zhu (1)
Nan Wang (1)
Qianru Jiang (1)
Haoxuan Fu (1)
Yongjun Li (1)
Zhengwei Fu (1)
1. College of Biological and Environmental Engineering, Zhejiang University of Technology, No.6 District, Zhaohui, Hangzhou, Zhejiang, 310032, China - ISSN：1877-8755
文摘
The aim of this study was to investigate whether the entrainment of light cue is affected or not in diabetic animals. We found that the individual light/dark (LD) reversal showed a tissue- and gene-specific effect on the circadian phases of peripheral clock genes, which was generally similar between the control and diabetic rats. In the liver and heart, the peak phases of examined clock genes (Bmal1, Rev-erbα, Per1, and Per2) were slightly shifted by 0??h in the liver and heart of control and diabetic rats. However, we found that the peak phases of these clock genes were greatly shifted by 8?2?h after the LD reversal for 7?days in the pineal gland of both control and diabetic rats. However, the activity rhythm was greatly different between two groups. After the individual LD reversal, the activity rhythm was completely shifted in the control rats but retained in the diabetic rats. These observations suggested that the behavioral rhythm of diabetic rats may be uncoupled from the master clock after the individual LD reversal. Moreover, we also found that the serum glucose levels of diabetic rats kept equally high throughout the whole day without any shift of peak phase after the individual reversal of LD cycle. While the serum glucose levels of control rats were tightly controlled during the normal and LD reversal conditions. Thus, the impaired insulin secretion induced uncontrollable serum glucose level may result in uncoupled activity rhythm in the diabetic rats after the individual LD reversal.