Murine orofacial development
Ontology highlight
ABSTRACT:
ORGANISM(S): Mus musculus
PROVIDER: GSE1624 | GEO | 2004/08/03
SECONDARY ACCESSION(S): PRJNA90783
REPOSITORIES: GEO
Similar Datasets
Project description:Developmental gene expression profiling of mammalian, fetal orofacial tissue
2007-10-12 | E-GEOD-1624 | biostudies-arrayexpress
Project description:BACKGROUND: Orofacial development is a multifaceted process involving precise, spatio-temporal expression of a panoply of genes. MicroRNAs (miRNAs) constitute the largest family of noncoding RNAs involved in gene silencing, and represent critical regulators of cell and tissue differentiation. MicroRNA gene expression profiling is an effective means of acquiring novel and valuable information regarding the expression and regulation of genes, under the control of miRNA, involved in mammalian orofacial development. RESULTS: To identify differentially expressed miRNAs during mammalian orofacial ontogenesis, miRNA expression profiles from gestation day (GD) -12, -13 and -14 murine orofacial tissue were compared utilizing miRXplore™ microarrays from Miltenyi Biotech GmbH. TaqManTM quantitative Real-Time PCR was utilized for validation of gene expression changes. Cluster analysis of the microarray data was conducted with the clValid R package and the UPGMA (hierarchical) clustering method. Functional relationships between selected miRNAs were investigated using Ingenuity Pathway Analysis. Expression of over 26% of the approximately 588 murine miRNA genes examined was detected in murine orofacial tissues from GD 12, 13 and 14. Among these expressed genes several clusters were seen to be developmentally regulated. Differential expression of genes encoding miRNAs within such clusters were shown to target genes encoding proteins involved in cell proliferation, cell adhesion, differentiation, apoptosis and epithelial-mesenchymal transformation, all processes critical for normal orofacial development. Functional relationships between miRNAs differentially expressed were investigated using Ingenuity Pathway Analysis (IPA; Ingenuity Systems). CONCLUSIONS: Using miRNA microarray technology, unique gene expression signatures of hundreds of miRNAs in embryonic orofacial tissue were defined. Gene targeting and functional analysis revealed that the expression of numerous protein-encoding genes, crucial to normal orofacial ontogeny, may be regulated by specific miRNAs. Time-course experiment (Developmental Stages), ICR mice embryos on gestational days (GD) 12, 13 and 14. Biological replicates: For each day of gestation, 3 independent pools of 15 to 20 staged embryos were used to procure embryonic orofacial tissues for preparation of 3 distinct pools of RNA that were independently processed and applied to individual miRXplore™ microRNA Microarray chips (Miltenyi Biotec GmbH). Technology: 2-color spotted cDNA, Hy5 (experimental sample) vs. Hy3 (control - miRXplore Universal Reference).
2010-12-01 | E-GEOD-20880 | biostudies-arrayexpress
Project description:BACKGROUND: Orofacial development is a multifaceted process involving precise, spatio-temporal expression of a panoply of genes. MicroRNAs (miRNAs) constitute the largest family of noncoding RNAs involved in gene silencing, and represent critical regulators of cell and tissue differentiation. MicroRNA gene expression profiling is an effective means of acquiring novel and valuable information regarding the expression and regulation of genes, under the control of miRNA, involved in mammalian orofacial development. RESULTS: To identify differentially expressed miRNAs during mammalian orofacial ontogenesis, miRNA expression profiles from gestation day (GD) -12, -13 and -14 murine orofacial tissue were compared utilizing miRXplore™ microarrays from Miltenyi Biotech GmbH. TaqManTM quantitative Real-Time PCR was utilized for validation of gene expression changes. Cluster analysis of the microarray data was conducted with the clValid R package and the UPGMA (hierarchical) clustering method. Functional relationships between selected miRNAs were investigated using Ingenuity Pathway Analysis. Expression of over 26% of the approximately 588 murine miRNA genes examined was detected in murine orofacial tissues from GD 12, 13 and 14. Among these expressed genes several clusters were seen to be developmentally regulated. Differential expression of genes encoding miRNAs within such clusters were shown to target genes encoding proteins involved in cell proliferation, cell adhesion, differentiation, apoptosis and epithelial-mesenchymal transformation, all processes critical for normal orofacial development. Functional relationships between miRNAs differentially expressed were investigated using Ingenuity Pathway Analysis (IPA; Ingenuity Systems). CONCLUSIONS: Using miRNA microarray technology, unique gene expression signatures of hundreds of miRNAs in embryonic orofacial tissue were defined. Gene targeting and functional analysis revealed that the expression of numerous protein-encoding genes, crucial to normal orofacial ontogeny, may be regulated by specific miRNAs.
2010-12-01 | GSE20880 | GEO
Project description:DEVELOPMENTAL MicroRNA EXPRESSION PROFILING OF MURINE EMBRYONIC OROFACIAL TISSUE
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Project description:We used RNA sequencing to screen differentially expressed genes (DEGs) in the rostral ventral medulla (RVM) and thalamus of rats during persistent orofacial pain to explore the mechanism of chronic orofacial pain.
2024-01-01 | GSE222926 | GEO
Project description:Identification of human orofacial enhancers and their role in orofacial clefts
| PRJNA624190 | ENA
Project description:Identification of human orofacial enhancers and their role in orofacial clefts
| PRJNA624191 | ENA
Project description:Genetic studies have revealed an essential role for cytosine DNA methylation in gene regulation. However, its spatiotemporal distribution in the developing embryo remains obscure. Here, we profiled the DNA methylation landscape of 12 mouse tissues/organs at 8 developmental stages spanning from early embryo to birth. In-depth analysis of such spatiotemporal epigenome maps uncovered widespread regulatory DNA element dynamics during embryogenesis. We systematically delineated methylation variants that likely drive gene transcription, whose human counterparts are enriched for genetic risk factors of human diseases. Strikingly, these predicted regulatory elements predominantly lose CG methylation during fetal development, whereas the trend is reversed after birth. Key transcription factors, essential for early tissue/organ development, accumulate non-CG methylation within their gene bodies, coinciding with transcriptional repression during late stage fetal development. These spatiotemporal epigenomic datasets provide a valuable resource for studies of gene regulation during mammalian tissue/organ progression and the possible origins of human developmental diseases.
2018-06-30 | GSE100685 | GEO
Project description:In this time course pregnant CD-1 (outbred) dams were exposed to MeHg as monomethylmercuric chloride intraperitoneally on 9 d.p.c. The test dose of 5.0 mg/kg MeHg was selected as a dose with an estimated 20% increased risk for encephalopathy in term fetuses, with no evidence of maternal toxicosis. Exposed embryos were co-treated with PK11195, a nontoxic ligand of the mitochondrial peripheral-type benzodiazepine receptor (Bzrp) that effectively suppresses developmental toxicity induced with MeHg. The anticipated remediation with 5.0 mg/kg and 4.0 mg/kg PK11195 is <10% malformations. Sampling intervals ranged from 3.0h to 6.0h post-exposure. All measurements were on RNA from the embryonic forebrain (prosencephalon). Keywords = time series Keywords = mercury Keywords = PK11195 Keywords = embryo Keywords = Fetal Minamata Disease Keywords: time-course
2004-03-11 | GSE1077 | GEO
Project description:A novel porcine cDNA microarray, containing PCR products selected for embryonic expression, was used for transcriptional profiling during conceptus development. Total RNA from quadruplicate samples of small spherical (1-5mm), large spherical (6-11mm), tubular (13-45mm), and filamentous (>100mm) was extracted, amplified, and converted to 32P labeled target and hybridized to membranes. Porcine peri-implantation embryo development order is from small spherical to large spherical, then to Tubular, then to filamentous. All this morphological transmission is within two days (day 10 to day 12). In this study, we investigated the gene expression changes by a specifically selected porcine embryo gene array. A number of genes were found to be differentially expressed during those developmental stages and confirmed by quantitative PCR. Keywords = Gene expression Keywords = porcine conceptus Keywords = cDNA microarray Keywords = peri-implantation Keywords = transcriptional profiling Keywords: time-course
2004-05-13 | GSE1372 | GEO