| Literature DB >> 31410775 |
Fei Xu1,2, Xin Li1,2, Weibo Niu1,2, Gaini Ma1,2, Qianqian Sun1,2, Yan Bi1,2, Zhenming Guo1,2, Decheng Ren1,2, Jiaxin Hu1,2, Fan Yuan1,2, Ruixue Yuan1,2, Lei Shi1,2, Xingwang Li1,2, Tao Yu1,2, Fengping Yang1,2, Lin He1,2,3, Xinzhi Zhao4,5, Guang He6,7.
Abstract
Schizophrenia is a kind of neurodevelopmental disease. Epidemiological data associates schizophrenia with prenatal exposure to famine. Relevant prenatal protein deprivation (PPD) rodent models support this result by observing decreasing prepulse inhibition, altered hippocampal morphology and impaired memory in offspring. All these abnormalities are highly consistent with the pathophysiology of schizophrenia. We developed a prenatal famine rat model by restricting daily diet of the pregnant rat to 50% of low protein diet. A metabolomics study of prefrontal cortex was performed to integrate GC-TOFMS and UPLC-QTOFMS. Thirteen controls and thirteen famine offspring were used to differentiate in PLS-DA (partial least squares-discriminate analysis) model. Furthermore, metabolic pathways and diseases were enriched via KEGG and HMDB databases, respectively. A total of 67 important metabolites were screened out according to the multivariate analysis. Schizophrenia was the most statistical significant disease (P = 0.0016) in our famine model. These metabolites were enriched in key metabolic pathways related to energy metabolism and glutamate metabolism. Based on these important metabolites, further discussion speculated famine group was characterized by higher level of oxidized damage compared to control group. We proposed that oxidative stress might be the pathogenesis of prenatal undernutrition which is induced schizophrenia.Entities:
Keywords: Metabolic; Prenatal malnutrition; Schizophrenia
Mesh:
Year: 2019 PMID: 31410775 DOI: 10.1007/s11011-019-00468-3
Source DB: PubMed Journal: Metab Brain Dis ISSN: 0885-7490 Impact factor: 3.584