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Expression profiling of human adipose stromal cell (hASC) adipogenesis

ABSTRACT: Human abdominal adipose tissue was obtained with informed consent from a 33-year old Caucasian female (BMI = 32.96 Kg/m2) undergoing lipoaspiration. Adipose stromal cells (hASCs) were isolated and differentiated into adipocytes in vitro. Two technical replicates from 9 time points realtive to induction of adipogenesis (day 0). Also, two technical replicated from pre-adipocytes (day -2) grown without FGF. Two individual replicates (day 1 and day 7) were removed due to failed hybridizations.

ORGANISM(S): Homo sapiens

SUBMITTER: Tarjei Mikkelsen

PROVIDER: E-GEOD-20697 | biostudies-arrayexpress |

REPOSITORIES: biostudies-arrayexpress

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Publications

Comparative epigenomic analysis of murine and human adipogenesis.

Mikkelsen Tarjei S TS Xu Zhao Z Zhang Xiaolan X Wang Li L Gimble Jeffrey M JM Lander Eric S ES Rosen Evan D ED

Cell 20101001 1

We report the generation and comparative analysis of genome-wide chromatin state maps, PPARγ and CTCF localization maps, and gene expression profiles from murine and human models of adipogenesis. The data provide high-resolution views of chromatin remodeling during cellular differentiation and allow identification of thousands of putative preadipocyte- and adipocyte-specific cis-regulatory elements based on dynamic chromatin signatures. We find that the specific locations of most such elements d ...[more]

PMID: 20887899

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MicroRNA expression profiling of human adipose stromal cell (hASC) adipogenesis

Project description:Human abdominal adipose tissue was obtained with informed consent from a 33-year old Caucasian female (BMI = 32.96 Kg/m2) undergoing lipoaspiration. Adipose stromal cells (hASCs) were isolated and differentiated into adipocytes in vitro. Two technical replicates from 9 time points relative to induction of adipogenesis (day 0). Also, one sample from pre-adipocytes (day -2) grown without FGF.

2010-09-30 | E-GEOD-20699 | biostudies-arrayexpress

Epigenomic profiling of hASC adipogenesis

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Project description:3T3-L1 pre-adipocyte cells were grown to confluence and induced to differentiate in adipogeneic media. Two technical replicates from four time points relative to induction of adipogenesis (day 0)

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Expression profiling of human adipose stromal cell (hASC) adipogenesis

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Expression data from SGBS human cells before and after 24 hours of stimulation with differentiation cocktail, with or without Scrambled (Scr) or Tenomodulin (TNMD) siRNA to knockdown the genes of interest.

Project description:In a screen for upregulated adipocyte genes in insulin resistant versus insulin sensitive subjects matched for BMI, we identified the type II transmembrane protein tenomodulin (TNMD), previously implicated in glucose tolerance in gene association studies. TNMD expression was greatly increased in human preadipocytes during differentiation, while silencing TNMD blocked adipogenic gene induction and adipogenesis. We used microarrays to identify genes of interest that are differentially expressed after the addition of siRNA to tenomodulin or scrambled siRNA, in both preadipocytes and partially differentiated adipocytes. SGBS preadipocytes were treated with scrambled or siTNMD. Cells either were kept undifferentiated or stimulated for 24 hours with differentiation cocktail. Cells were prepared with this protocol on three different occasions and total RNA was isolated to provide three biological replicates per sample.

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Long non-coding RNAs regulate adipogenesis (Illumina RNA-Seq)

Project description:Adipogenesis involves the regulation of hundreds of genes by several well-studied proteins, but the role of long, noncoding RNAs in this process has not been defined. We track the regulation of hundreds of lncRNAs during adipocyte differentiation, and find several that are essential for this process. We extractedbrown and white primary adipocytes and pre-adipocytes and profiled lncRNA expresssion via mRNA-Seq. We also profiled cultured, differentiated adipocytes to verify that we could recapitulate the adipocyte expression profile in preparation for a loss-of-function screen for essential adipogenic lincRNAs.

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Multiple Roles for Steroid Receptor RNA Activator (SRA) in Regulation of Adipogenesis and Insulin Sensitivity

Project description:PPARM-NM-3 is a master transcriptional regulator of adipogenesis. Hence, the identification of PPARM-NM-3 coactivators should help reveal mechanisms controlling gene expression in adipose tissue development and physiology. We show that the non-coding RNA Steroid receptor RNA Activator, SRA, associates with PPARM-NM-3 and coactivates PPARM-NM-3-dependent reporter gene expression. Overexpression of SRA in ST2 adipocyte precursor cells promotes their differentiation into adipocytes. Conversely, knockdown of endogenous SRA inhibits 3T3-L1 preadipocyte differentiation. Microarray analysis reveals hundreds of SRA-responsive genes in adipocytes, including genes in cell cycle, insulin and TNFM-NM-1 signaling pathways. Some functions of SRA may involve mechanisms other than coactivation of PPARM-NM-3. SRA increases insulin-stimulated glucose uptake in adipocytes. SRA promotes S-phase entry during mitotic clonal expansion, decreases expression of cyclin-dependent kinase inhibiters p21Cip1 and p27Kip1, and increases phosphorylation of Cdk1/Cdc2. SRA also inhibits the TNFM-NM-1-induced phosphorylation of c-Jun NH2-terminal kinase. In conclusion, SRA enhances adipogenesis and adipocyte function through multiple pathways. Total RNA was isolated from fully differentiated (MDIT day 4) SRA overexpressing (pMSCV-SRA) and control (pMSCV empty vector) ST2 adipocytes, or fully differentiated (MDIT day 8) shSRA knockdown (pSuperior-shSRA) or shControl (pSuperior-shcontrol) 3T3-L1 adipocytes. Genome wide gene expression analysis was performed using Affymetrix mouse genome 430 2.0 arrays. Triplicate samples were analyzed.

2013-05-07 | E-GEOD-21594 | biostudies-arrayexpress

3T3-L1

Project description:Obesity is an energy balance disorder in which nutrient intake chronically exceeds energy expenditure, resulting in the accumulation of white adipose tissue. Increased adiposity is due to increases in the number and size of adipocytes, which leads to increased body fat and metabolic consequences. Adipocytes induce insulin resistance by promoting lipotoxicity and modulating adipokine secretion. Therefore, a thorough understanding of the mechanisms that regulate adipogenesis could have clinical relevance in preventing and treating obesity and the metabolic syndrome. In this study, we performed miRNA array to measure miRNA profiles of undifferentiated and differentiated 3T3-L1 adipocytes using Agilent(r) miRNA array. We show that miRNA profile changes during adipogenesis. Thus, this data would be useful to find the distinct role of miRNAs for the regulation of adipogenesis.

2013-08-07 | E-MTAB-1783 | biostudies-arrayexpress

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