Hepatic gene expression in male fetuses from maternal nutrient restriction in mice
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ABSTRACT:
PROVIDER: PRJNA510546 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR8335390.fastq.gz | Fastqsanger.gz | |||
| SRR8335400.fastq.gz | Fastqsanger.gz | |||
| SRR8335391.fastq.gz | Fastqsanger.gz | |||
| SRR8335401.fastq.gz | Fastqsanger.gz | |||
| SRR8335392.fastq.gz | Fastqsanger.gz |
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Project description:The aim of this study was to identify fetal adaptations to gene expression in our mouse model of intrauterine growth restriction (IUGR). Starting at E6.5, pregnant CD-1 mice received either control (ad libitum) or 70% of ad libitum food (maternal nutrient restriction [MNR]). At E18.5, fetal right liver lobes were collected from 2 pups/litter in litters with 11-15 pups. Frozen liver was homogenized for RNA isolations. Isolated RNA was sequenced on a HiSeq2500 with an average read depth of 23M reads and a range of 17-31M reads per sample. Reads were aligned to the mm9 transcriptome with Bowtie2. Normalization and differential expression was done with DESeq2, ALDex2 and EdgeR, and genes were considered in the study if they were consistent in 2 or more tools (FDR <0.1).
2019-12-17 | GSE124006 | GEO
Project description:We addressed the molecular mechanisms and biological processes underlying the differences in cerebrum, liver, and muscle gene expression of 50 days fetuses in response to early maternal nutrient restriction. To this end, we employed tissue-to-tissue and tissue-specific network approaches using the genome-wide expression profile of 14 samples for two experimental conditions [Control – CON (n = 7) and 40% nutrient restriction – RES (n = 7)]. After RNA quality control, read mapping was performed with STAR aligner to the bovine ARS-UCD1.2 reference genome. Count normalization was performed by using the VST function from DESEq2. Gene networks were constructed using the PCIT algorithm, whereas differentially co-expressed genes were identified based on the R-package DGCA. Significant gene-gene co-expression was taken based on r > | 0.9| and then filtered by differentially expressed genes and transcription factors. Networks were visualized in Cytoscape, and functional analyses were carried out on Cluego and ShinyGo tools. We found that the cerebrum, liver, and muscle tissues were affected by nutrient restriction leading to differences in transcriptional regulation between CON and RES groups. Furthermore, we shed light on the nutrient-sensing pathways across tissues such as mTOR, PI3K/Akt, and insulin. This project was supported by Agriculture and Food Research Initiative Competitive Grant no. 2016-67016-24946 from the USDA National Institute of Food and Agriculture as well as the USDA-NIFA-AFRI (2018-67011-31708).
2021-02-08 | GSE154299 | GEO
Project description:Placental development is modified in response to maternal nutrient restriction (NR) resulting in a spectrum of fetal growth rates. Pregnant sheep carrying singleton fetuses and fed either 100% (n=8) or 50% (NR; n=28) of their National Research Council (NRC) recommended intake from Days 35 to 135 of pregnancy were used to elucidate placentome transcriptome alterations at both Day 70 and 135. NR fetuses were further designated into upper (NR NonSGA; n=7) and lower quartiles (NR SGA; n=7) based on Day 135 fetal weight. At Day 70 of pregnancy, there were 22 genes dysregulated between NR SGA and 100% NRC placentomes, 27 genes between NR NonSGA and 100% NRC placentomes, and 22 genes between NR SGA and NR NonSGA placentomes. These genes mediated molecular functions such as MHC class II protein binding, signaling receptor binding, and cytokine activity. Gene Set Enrichment Analysis (GSEA) revealed significant overrepresentation of genes for natural killer cell-mediated cytotoxicity in NR SGA compared to 100% NRC placentomes and alterations in nutrient utilization pathways between NR SGA and NR NonSGA placentomes at Day 70. Results identify novel factors associated with impaired function in SGA placentomes and potential for placentomes from NR NonSGA pregnancies to adapt to nutritional hardship.
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Project description:Placental transcriptome adaptations to maternal nutrient restriction in sheep
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Project description:Transcriptomic profiling of cerebrum, liver, and muscle tissues of 50 days fetuses in response to early maternal nutrient restriction
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Project description:Poor maternal nutrition causes intrauterine growth restriction (IUGR); however, its effects on fetal cardiac development are unclear. We have developed a baboon model of moderate maternal undernutrition, leading to IUGR. We hypothesized that the IUGR affects fetal cardiac structure and metabolism. Six control pregnant baboons ate ad-libitum (CTRL)) or 70% CTRL from 0.16 of gestation (G). Fetuses were euthanized at C-section at 0.9G under general anesthesia. Male but not female IUGR fetuses showed left ventricular fibrosis inversely correlated with birth weight. Expression of extracellular matrix protein TSP-1 was increased (p<0.05) in male IUGR. Expression of cardiac fibrotic markers TGFß, SMAD3 and ALK-1 were downregulated in male IUGRs with no difference in females. Autophagy was present in male IUGR evidenced by upregulation of ATG7 expression and lipidation LC3B. Global miRNA expression profiling revealed 56 annotated and novel cardiac miRNAs exclusively dysregulated in female IUGR, and 38 cardiac miRNAs were exclusively dysregulated in males (p<0.05). Fifteen (CTRL) and 23 (IUGR) miRNAs, were differentially expressed between males and females (p<0.05) suggesting sexual dimorphism, which can be at least partially explained by differential expression of upstream transcription factors (e.g. HNF4a, and NF?B p50). Lipidomics analysis of fetal cardiac tissue exhibited a net increase in diacylglycerol and plasmalogens and a decrease in triglycerides and phosphatidylcholines. In summary, IUGR resulting from decreased maternal nutrition is associated with sex-dependent dysregulations in cardiac structure, miRNA expression, and lipid metabolism. If these changes persist postnatally, they may program offspring for higher later life cardiac risk.
2018-04-30 | MTBLS426 | MetaboLights
Project description:Maternal undernutrition during pregnancy followed by ad libitum access to nutrients during postnatal life induces postnatal metabolic disruptions in multiple species. As skeletal muscle is a major metabolic organ, RNAseq was performed on the longissimus dorsi muscles of slaughter-weight adult females that had been exposed to nutrient-restriction in utero.
2022-07-01 | GSE181149 | GEO
Project description:Suboptimal intrauterine nutrition predisposes the fetus to central obesity and metabolic syndrome in adult life, suggesting nutritional programming of the fat distribution. However, the underlying mechanisms are not elucidated. We hypothesized that prenatal nutritional deprivation leads to stimulation of adipogenesis, as an adaptive mechanism, in a depot-dependent manner. The induction of adipogenesis is most enhanced in the subcutaneous lower-body depots, followed by the subcutaneous upper-body and visceral adipose tissue depots. Stimulation of adipogenesis may lead to an early consumption of the stem cell pool, and thus, may impair adipose tissue expandability postnatally, which may lead to differences in regional adipose tissue growth. We tested this hypothesis by analyzing global gene expression to identify expression patterns in subcutaneous abdominal, subcutaneous femoral, and omental adipose depots of baboon fetuses that have been altered by nutritional maternal deprivation. Adipose tissue was collected from baboon fetuses at 165 dG from mothers fed control or 30% nutrient-restricted diets (three females and one male in each group). 24 samples, each consisted of pooled total RNA from triplicate wells (6-well plate).
2011-12-16 | E-GEOD-34464 | biostudies-arrayexpress
Project description:Suboptimal intrauterine nutrition predisposes the fetus to central obesity and metabolic syndrome in adult life, suggesting nutritional programming of the fat distribution. However, the underlying mechanisms are not elucidated. We hypothesized that prenatal nutritional deprivation leads to stimulation of adipogenesis, as an adaptive mechanism, in a depot-dependent manner. The induction of adipogenesis is most enhanced in the subcutaneous lower-body depots, followed by the subcutaneous upper-body and visceral adipose tissue depots. Stimulation of adipogenesis may lead to an early consumption of the stem cell pool, and thus, may impair adipose tissue expandability postnatally, which may lead to differences in regional adipose tissue growth. We tested this hypothesis by analyzing global gene expression to identify expression patterns in subcutaneous abdominal, subcutaneous femoral, and omental adipose depots of baboon fetuses that have been altered by nutritional maternal deprivation. Adipose tissue was collected from baboon fetuses at 165 dG from mothers fed control or 30% nutrient-restricted diets (three females and one male in each group).
2011-12-16 | GSE34464 | GEO
Project description:Intra-uterine growth restriction (IUGR) and fetal overgrowth increase the risk of postnatal health. Maternal nutrition is the major intrauterine environmental factor that alters fetal weight. However, the mechanisms underlying maternal nutrition affect fetal development is not entirely clear. We developed a pig model and used isobaric tags for relative and absolute quantification (iTRAQ) to investigate alterations in the placental proteome were obtained from gilts in normal-energy-intake (Con) and high-energy-intake (HE) group, respectively.At 90 d of gestation, the heavy fetuses were found at the tubal ends and light fetuses at the cervical ends of the uterus in Con group and the heavy fetuses had higher glucose concentration than the light fetuses. However, a higher uniformity was noted in HE group. Placental promote between these two positions indicated that a total of 78 and 50 differentially expressed proteins were detected in Con and HE group, respectively. In Con group, these proteins related to lipid metabolism (HADHA, AACS, CAD), nutrient transport (GLUT, SLC27A1) and energy metabolism (NDUFV1, NDUFV2, ATP5C1). However, the differentially expressed proteins in HE group were mainly participation in transcriptional and translational regulation and intracellular vesicular transport.
2018-10-26 | PXD004951 | Pride