Comparison of mouse placental labyrinth and human villus tree
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PROVIDER: PRJNA109739 | ENA |
REPOSITORIES: ENA
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Project description:An important question for the use of the mouse as a model for studying human disease is the degree of functional conservation of genetic control pathways from human to mouse. The human placenta and mouse placenta show structural similarities but there has been no systematic attempt to assess their molecular similarities or differences. We built a comprehensive database of protein and microarray data for the highly vascular exchange region micro-dissected from the human and mouse placenta near-term. Abnormalities in this region are associated with two of the most common and serious complications of human pregnancy, maternal preeclampsia (PE) and fetal intrauterine growth restriction (IUGR), each disorder affecting ~5% of all pregnancies. To compare the gene expression patterns in the vascular exchange regions of the human (villus tree) and mouse (labyrinth) placenta. Keywords: comparison
2009-06-16 | GSE13155 | GEO
Project description:An important question for the use of the mouse as a model for studying human disease is the degree of functional conservation of genetic control pathways from human to mouse. The human placenta and mouse placenta show structural similarities but there has been no systematic attempt to assess their molecular similarities or differences. We built a comprehensive database of protein and microarray data for the highly vascular exchange region micro-dissected from the human and mouse placenta near-term. Abnormalities in this region are associated with two of the most common and serious complications of human pregnancy, maternal preeclampsia (PE) and fetal intrauterine growth restriction (IUGR), each disorder affecting ~5% of all pregnancies. To compare the gene expression patterns in the vascular exchange regions of the human (villus tree) and mouse (labyrinth) placenta. Experiment Overall Design: Mouse labyrinth tissue was micro-dissected form naturally mated crosses of C57Bl/6J mice. Placentas were individually dissected on embryonic day 17.5. From each litter ¼ of the tissue were set aside for RNA extraction and microarray analysis and ¾ for cellular fractionation and proteomic analysis, as recently described (Kislinger et al., 2006). Human villous trees were dissected from term normal placenta delivered by cesarean section from a term pregnancy (~ 38 weeks). Tissue was divided for organellar fractionation and RNA extraction.
2009-06-22 | E-GEOD-13155 | biostudies-arrayexpress
Project description:Genes encoding transcription factors function as hubs in gene regulatory networks because they encode DNA-binding proteins, which bind to promoters that carry their binding sites. In the present work we have studied gene regulatory networks defined by genes with transcripts belonging to different mRNA abundance classes in the small intestinal epithelial cell. The focus is the rewiring that occurs in transcription factor hubs in these networks during the differentiation of the small intestinal epithelial cell while it migrates along the crypt-villus axis and during its development from a fetal endodermal cell to a mature adult villus epithelial cell. We have generated transcriptome data for mouse small intestinal villus, crypt and fetal intestinal epithelial cells. In addition we have generated metabolome data from crypt and villus cells. Our results show that the intestinal crypt transcription factor hubs that are rewired during differentiation are involved in the cell cycle process (E2F, NF-Y) and stem cell maintenance (c-Myc). In contrast the villi are dominated by a HNF-4 villus hub, which is rewired during differentiation by the addition of network genes with relevance for lipoprotein synthesis and lipid absorption. Moreover, we have identified a villus NF-kB hub, which was revealed by comparison of the villus and endoderm transcriptomes. The rewiring of the NF-kB villus hub during intestinal development reflects transcriptional activity established by host and microflora interactions. To aid in the mining of our results we have developed a web portal (http://gastro.imbg.ku.dk/mousecv/) allowing easy linkage between the transcriptomic data, biological processes and functions. Experiment Overall Design: Four different sample categories were analyzed. Experiment Overall Design: 1) Small intestinal crypts isolated form 12-weeks old C57BL/6 mice. These samples are in triplicates. Experiment Overall Design: 2) Small intestinal villi isolated form 12-weeks old C57BL/6 mice. These samples are in triplicates. Experiment Overall Design: 3) Embryonic day 12 mesenchyme. These samples are in quadruplicate. each sample is derived from a pool of mesenchymes (10-40) Experiment Overall Design: 4) Embryonic day 12 endoderm. These samples are in quadruplicate. each sample is derived from a pool of endoderms (10-40)
2008-06-12 | E-GEOD-3216 | biostudies-arrayexpress
Project description:Genes encoding transcription factors function as hubs in gene regulatory networks because they encode DNA-binding proteins, which bind to promoters that carry their binding sites. In the present work we have studied gene regulatory networks defined by genes with transcripts belonging to different mRNA abundance classes in the small intestinal epithelial cell. The focus is the rewiring that occurs in transcription factor hubs in these networks during the differentiation of the small intestinal epithelial cell while it migrates along the crypt-villus axis and during its development from a fetal endodermal cell to a mature adult villus epithelial cell. We have generated transcriptome data for mouse small intestinal villus, crypt and fetal intestinal epithelial cells. In addition we have generated metabolome data from crypt and villus cells. Our results show that the intestinal crypt transcription factor hubs that are rewired during differentiation are involved in the cell cycle process (E2F, NF-Y) and stem cell maintenance (c-Myc). In contrast the villi are dominated by a HNF-4 villus hub, which is rewired during differentiation by the addition of network genes with relevance for lipoprotein synthesis and lipid absorption. Moreover, we have identified a villus NF-kB hub, which was revealed by comparison of the villus and endoderm transcriptomes. The rewiring of the NF-kB villus hub during intestinal development reflects transcriptional activity established by host and microflora interactions. To aid in the mining of our results we have developed a web portal (http://gastro.imbg.ku.dk/mousecv/) allowing easy linkage between the transcriptomic data, biological processes and functions. Keywords: Cell type comparison
2005-11-29 | GSE3216 | GEO
Project description:H3K79me2 ChIP-seq in mouse proximal intestinal Lgr5(hi) stem cells and villus cells
2012-10-13 | GSE41542 | GEO
Project description:H3K79me2 ChIP-seq in mouse proximal intestinal Lgr5(hi) stem cells and villus cells Examination of H3K79me2 modifications between Lgr5(hi) stem cells and differentiated villus cells
2012-10-13 | E-GEOD-41542 | biostudies-arrayexpress
Project description:We analyzed gene expression profiles in isolated mouse LGR5+ intestinal stem cells, lineage-specific enterocyte and secretory progenitors, and terminally differentiated villus enterocytes. Gene Ontology analyses of cell type-specific transcripts indicated their expected biological functions. We hybridized Affmetrix 430A 2.0 mouse microarrays with processed RNA isolated from purified Lgr5+ intestinal stem cells, secretory (Sec-Pro) and enterocyte (Ent-Pro) crypt progenitors, and mature villus enterocytes (ENT).
2014-01-06 | E-GEOD-51398 | biostudies-arrayexpress
Project description:The mammalian placenta is both the physical interface between mother and fetus, and the source of endocrine signals that target the maternal hypothalamus, priming females for parturition, lactation and motherhood. Despite the importance of this connection, the effects of altered placental signaling on the maternal brain are understudied. Here, we show that placental dysfunction alters gene expression in the maternal brain, with the potential to affect maternal behavior. Using a cross between the house mouse and the Algerian mouse in which hybrid placental development is abnormal, we sequenced late gestation placental and maternal medial preoptic area transcriptomes and quantified differential expression and placenta-maternal brain co-expression between normal and hybrid pregnancies. The expression of Fmn1, Drd3, Caln1 and Ctsr was significantly altered in the brains of females exposed to hybrid placentas. Most strikingly, expression patterns of placenta-specific gene families and Drd3 in the brains of house mouse females carrying hybrid litters matched those of female Algerian mice, the paternal species in the cross. Our results indicate that the paternally-derived placental genome can influence the expression of maternal-fetal communication genes, including placental hormones, suggesting an effect of the offspring's father on the mother’s brain.
2019-12-31 | GSE126469 | GEO
Project description:Implant failure and insufficient placental development are important causes of female infertility, recurrent miscarriage, and other pregnancy-related problems. A better understanding of gene expression profiling based on high-throughput sequencing technology is important for the study on the development of the placenta and the causes of pregnancy-related diseases. In this study, we collected 6 first-trimester chorionic villus and decidua tissues and obtained the transcriptome database on high-throughput sequencing. We performed routine principal component analysis (PCA) on these 12 samples and identified differentially expressed genes from samples with different sex background. And identified genes highly expressed in villus and decidua, respectively.
2019-08-31 | E-MTAB-8186 | biostudies-arrayexpress
Project description:Mouse placental microRNA profiling upon zearalenone exposure
| PRJNA564853 | ENA