Metabolomics,Unknown,Transcriptomics,Genomics,Proteomics

Dataset Information

Comparison of transcriptomes between DMSO-5uM and Torin1-5uM treated mouse cumulus-oocyte complexes cultured in vitro for 14h

ABSTRACT: We sought to identify the potential specific roles of the MTOR signalling in cumulus cells by comparing the transcriptomes of the Control (treated with the DMSO vehicle) and MTOR-specific inhibitor Torin 1(5uM)-treated cumulus-oocyte complexes that were cultured for 16 hours. We compared the transcriptomes between DMSO- and Torin 1- treated cumulus-oocyte complexes. 3 individual cumulus-oocyte complex samples of DMSO- and Torin1-treated were collected. Comparison was done between DMSO- and Torin1-treated groups.

ORGANISM(S): Mus musculus

SUBMITTER: You-Qiang Su

PROVIDER: E-GEOD-79862 | biostudies-arrayexpress |

REPOSITORIES: biostudies-arrayexpress

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Publications

Oocyte-dependent activation of MTOR in cumulus cells controls the development and survival of cumulus-oocyte complexes.

Guo Jing J Shi Lanying L Gong Xuhong X Jiang Mengjie M Yin Yaoxue Y Zhang Xiaoyun X Yin Hong H Li Hui H Emori Chihiro C Sugiura Koji K Eppig John J JJ Su You-Qiang YQ

Journal of cell science 20160629 16

Communication between oocytes and their companion somatic cells promotes the healthy development of ovarian follicles, which is crucial for producing oocytes that can be fertilized and are competent to support embryogenesis. However, how oocyte-derived signaling regulates these essential processes remains largely undefined. Here, we demonstrate that oocyte-derived paracrine factors, particularly GDF9 and GDF9-BMP15 heterodimer, promote the development and survival of cumulus-cell-oocyte complexe ...[more]

PMID: 27358481

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Project description:Mouse oocytes control cumulus cell metabolic processes that are deficient in the oocytes themselves and this delegation is necessary for oocyte development. Oocyte-derived bone morphogenetic factor 15 (BMP15) and growth differentiation factor 9 (GDF9) appear to be key regulators of follicular development. The effect of these factors on cumulus cell function before the preovulatory surge of luteinizing hormone (LH) was assessed by analysis of the transcriptomes of cumulus cells from wildtype (WT), Bmp15-/-, and Bmp15-/- Gdf9+/- double mutant (DM) mice using microarray analysis. The biological themes associated with the most highly-affected transcripts were identified using bioinformatic approaches, IPA and GenMAPP/MAPPFinder. There were 5,332, 7,640, and 2,651 transcripts identified to be significantly changed in the comparisons of Bmp15-/- vs. WT, DM vs. WT, and DM vs. Bmp15-/- respectively by the criteria of FC (fold change) p <0.01. Among theses changed transcripts, 744 were commonly changed in all three pair-wise comparisons, and hence were considered to be the most highly affected transcripts by mutation of Bmp15 and Gdf9. IPA Analyses revealed that metabolism was the major theme associated with the most highly-changed transcripts: glycolysis and sterol biosynthesis were the two most significantly affected pathways. Most of the transcripts encoding enzymes for sterol biosynthesis were down-regulated in both mutant cumulus cells and in WT cumulus cell after oocytectomy. Similarly, there was a reduction of de novo-synthesized cholesterol in these cumulus cells. This suggests that oocytes regulate cumulus cell metabolism, particularly sterol biosynthesis, by promoting the expression of corresponding transcripts. Furthermore, in WT-mice, Mvk, Pmvk, Fdps, Sqle, Cyp51, Sc4mol, and Ebp, which encode enzymes in the sterol biosynthetic pathway, were found to be expressed robustly in cumulus cells, but expression was barely detectable in oocytes. Levels of de novo-synthesized cholesterol were significantly higher in cumulusâenclosed oocytes than denuded oocytes. These results indicate that mouse oocytes are deficient in their ability to synthesize cholesterol and require cumulus cells to provide them with products of the sterol biosynthetic pathway. Oocyte-derived BMP15 and GDF9 may promote this metabolic pathway in cumulus cells as compensation for their own deficiencies. Experiment Overall Design: Three sets of independent cumulus cell samples were collected for each genotype (wild type, Bmp15-/-, and Bmp15-/-Gdf9+/-) of mice, and were used for the array study as shown below. Experiment Overall Design: Array Genotype Sample Experiment Overall Design: GC_430_2_GES05_0161_033105_1.CEL WT 1 Experiment Overall Design: GC_430_2_GES05_0162_033105_1.CEL WT 2 Experiment Overall Design: GC_430_2_GES05_0163_033105_1.CEL WT 3 Experiment Overall Design: GC_430_2_GES05_0164_033105_1.CEL Bmp15-/- 4 Experiment Overall Design: GC_430_2_GES05_0165_033105_1.CEL Bmp15-/- 5 Experiment Overall Design: GC_430_2_GES05_0166_033105_1.CEL Bmp15-/- 6 Experiment Overall Design: GC_430_2_GES05_0167_033105_1.CEL DM 7 Experiment Overall Design: GC_430_2_GES05_0168_033105_1.CEL DM 8 Experiment Overall Design: GC_430_2_GES05_0169_033105_1.CEL DM 9

Dataset Information

Comparison of transcriptomes between DMSO-5uM and Torin1-5uM treated mouse cumulus-oocyte complexes cultured in vitro for 14h

Publications

Oocyte-dependent activation of MTOR in cumulus cells controls the development and survival of cumulus-oocyte complexes.

Similar Datasets

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