Deep multilayer brain omics identifies the potential involvement of menopause molecular networks in Gliomas' disease progression.
Chunhua LiuWei ZhangGuozheng XuDaolai ZhangCheng ZhangSen QiaoZhimei WangHongmei WangPublished in: FASEB journal : official publication of the Federation of American Societies for Experimental Biology (2022)
The risk of high-grade gliomas is lower in young females, however, its incidence enhances after menopause, suggesting potential protective roles of female sex hormones. Hormone oscillations after menopause have received attention as a possible risk factor. Little is known about risk factors for adult gliomas. We examined the association of the aging brain after menopause, determining the risk of gliomas with proteomics and the MALDI-MSI experiment. Menopause caused low neurotransmitter levels such as GABA and ACH, high inflammatory factor levels like il-1β, and increased lipid metabolism-related levels like triglycerides in the brain. Upregulated and downregulated proteins after menopause were correlated with differentially expressed glioma genes, such as ACTA2, CAMK2D, FNBPIL, ARL1, HEBP1, CAST, CLIC1, LPCAT4, MAST3, and DOCK9. Furthermore, differential gene expression analysis of monocytes showed that the downregulated gene LPCAT4 could be used as a marker to prevent menopausal gliomas in women. Our findings regarding the association of menopause with the risk of gliomas are consistent with several extensive cohort studies. In view of the available evidence, postmenopausal status is likely to represent a significant risk factor for gliomas.
Keyphrases
- high grade
- low grade
- postmenopausal women
- gene expression
- genome wide
- risk factors
- bone mineral density
- white matter
- mass spectrometry
- resting state
- dna methylation
- oxidative stress
- pregnant women
- dendritic cells
- metabolic syndrome
- multiple sclerosis
- single cell
- blood brain barrier
- type diabetes
- polycystic ovary syndrome
- middle aged
- climate change
- insulin resistance
- peripheral blood
- single molecule
- childhood cancer