Next Generation Sequencing Transcriptome Quantitative Analysis of Livers of Adult Male Offspring of Obese Female Mice
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ABSTRACT:
ORGANISM(S): Mus musculus
PROVIDER: GSE134976 | GEO | 2019/07/27
REPOSITORIES: GEO
Similar Datasets
Project description:Obesity during pregnancy is associated with increased risk of non-alcoholic fatty liver disease in the offspring. We used RNA next generation sequencing analysis (HiSeq2000) to have a glance at the miRNome in twelve week-old male offspring exposed to maternal obesity and weaned onto an obesogenic diet.
2019-07-27 | GSE134977 | GEO
Project description:Obesity during pregnancy increase the risk for cardiac in the offspring. We used RNA next-generation sequencing analysis to have a snapshot of the heart transcriptome in male offspring exposed to maternal obesity and weaned onto an obesogenic diet.
2021-06-05 | GSE162185 | GEO
Project description:Obesity during pregnancy is associated with fetal growth restriction in the offspring. We used RNA next generation sequencing analysis (HiSeq2000) to have a snapshot of the placenta transcriptome at embryonic day 19 to examine whether mice exposed to maternal obesity had significant changes in their transcriptome which may lead to growth restriction in the fetus.
2020-04-01 | GSE140013 | GEO
Project description:Mice were weaned onto standard RM1 diet or onto a highly palatable obesogenic diet (824018 – ‘45% AFE fat) supplemented with condensed milk. After 12 weeks, mice were killed, and liver NK cells (Lin- NK1.1+ CD49a- CD49b+) or ILC1 (Lin- NK1.1+ CD49a+ CD49b-) were sorted. Total RNA was extracted from sorted cells, cDNA generated and RNASeq performed.
2019-03-13 | GSE122828 | GEO
Project description:Aims: Epidemiological and animal studies have shown that maternal diet can influence metabolism in adult offspring. However, the molecular mechanisms underlying these changes remain poorly understood. Here, we aim to explore phenotypes induced by maternal obesity in a mouse model and examine gene expression and epigenetic alterations in adulthood induced by maternal diet. Methods: We analyzed genetically identical male mice born from dams fed a high- or low-fat diet throughout pregnancy and until day 21 postpartum. After weaning, half of the males of each group were fed a high-fat diet, the other half a low-fat diet. We first characterized the genome-wide gene expression patterns of six tissues of adult offspring - liver, pancreas, white adipose, brain, muscle and heart [GSE40903] . We then measured DNA methylation patterns in liver at selected loci and throughout the genome. Results: Maternal diet had a significant effect on the body weight of the offspring when they are fed an obesogenic diet after weaning. Our analyses showed that maternal diet had a pervasive effect on gene expression, with a pronounced effect in liver where it affected many genes involved in inflammation, cholesterol synthesis and RXR activation. Maternal diet had no detectable effect on DNA methylation in the liver. Conclusions: Overall, our findings highlighted the persistent influence of maternal diet on adult tissue regulation and suggested that the transcriptional changes were unlikely to be caused by DNA methylation differences in adult liver. Methylation is compared between nine week old animals fed a common diet as adults, but derived from mothers fed different diets.
2014-03-04 | E-GEOD-52266 | biostudies-arrayexpress
Project description:Aims: Epidemiological and animal studies have shown that maternal diet can influence metabolism in adult offspring. However, the molecular mechanisms underlying these changes remain poorly understood. Here, we aim to explore phenotypes induced by maternal obesity in a mouse model and examine gene expression and epigenetic alterations in adulthood induced by maternal diet. Methods: We analyzed genetically identical male mice born from dams fed a high- or low-fat diet throughout pregnancy and until day 21 postpartum. After weaning, half of the males of each group were fed a high-fat diet, the other half a low-fat diet. We first characterized the genome-wide gene expression patterns of six tissues of adult offspring - liver, pancreas, white adipose, brain, muscle and heart [GSE40903] . We then measured DNA methylation patterns in liver at selected loci and throughout the genome. Results: Maternal diet had a significant effect on the body weight of the offspring when they are fed an obesogenic diet after weaning. Our analyses showed that maternal diet had a pervasive effect on gene expression, with a pronounced effect in liver where it affected many genes involved in inflammation, cholesterol synthesis and RXR activation. Maternal diet had no detectable effect on DNA methylation in the liver. Conclusions: Overall, our findings highlighted the persistent influence of maternal diet on adult tissue regulation and suggested that the transcriptional changes were unlikely to be caused by DNA methylation differences in adult liver. Methylation is compared between nine week old animals fed a common diet as adults, but derived from mothers fed different diets. Sequence of PCR amplification of bisulfite converted genomic DNA of numerous loci
2014-03-04 | E-GEOD-52267 | biostudies-arrayexpress
Project description:The global prevalence of obesity is increasing across age and gender. The rising burden of obesity in young people contributes to the early emergence of type 2 diabetes. Having one parent obese is an independent risk factor for childhood obesity. While the detrimental impact of diet-induced maternal obesity on offspring is well established, the extent of the contribution of obese fathers is unclear, as is the role of non-genetic factors in the casual pathway. Here we show that paternal high fat diet exposure programmed β-cell âdysfunctionâ in their F1 female offspring. Chronic high fat diet consumption in Sprague Dawley fathers led to increased body weight, adiposity, impaired glucose tolerance and insulin sensitivity. Relative to controls, their female offspring had lower body weight at day-1, increased pubertal growth rate, impaired insulin secretion and glucose tolerance, in the absence of obesity or increased adiposity. Paternal high fat diet was observed to alter gene expression of pancreatic islet genes in adult female offspring (P < 0.001); affected functional clusters includes calcium ion binding, insulin, apoptosis, Wnt and cell cycle organ/system development. This is the first reported study in mammals describing non-genetic, intergenerational transmission of metabolic sequelae of high fat diet from father to offspring. These findings support a role of fathers in metabolic programming of offspring and form a framework for further studies. F0 founders were male Sprague Dawley rats, divided into two groups, high fat (HF) and control. The HF fathers were given commercially prepared high-fat pellets (43% as fat); while the controls ate standard laboratory chow (9% as fat). The two groups of fathers had distinct phenotype; the HF fathers were significantly heavier with increased adiposity, they were also glucose intolerant and insulin resistant. At 15 weeks of age, fathers were mated with normal females consuming chow, to generate the F1 offspring. Only female offspring were studied. Female offspring were weaned unto standard laboratory chow at 3 weeks. At 6 and 12 weeks, intraperitoneal glucose tolerance test (IpGTT) was performed to measure blood glucose and insulin profile; at 11 weeks, intraperitoneal insulin tolerance test was done. The body weight and adiposity of these offspring were not different between the two groups. The HF offspring had glucose intolerance and impaired glucose-induced insulin response, mainly at the acute phase, observed since 6 weeks. The IpITT was not different between groups. At 13 weeks, islets were harvested from the two groups of offspring.
2010-10-21 | E-GEOD-19877 | biostudies-arrayexpress
Project description:Maternal obesity has long-term effects on offspring metabolic health. Among the potential mechanisms, prior research has indicated potential disruptions in circadian rhythms and gut microbiota in the offspring. To challenge this hypothesis, we implemented a maternal high fat diet regimen before and during pregnancy, followed by a standard diet after birth. Our findings confirm that maternal obesity impacts offspring birth weight and glucose and lipid metabolisms. However, we found minimal impact on circadian rhythms and microbiota that are predominantly driven by the feeding/fasting cycle. Notably, maternal obesity altered rhythmic liver gene expression, affecting mitochondrial function and inflammatory response without disrupting the hepatic circadian clock. These changes could be explained by a masculinisation of liver gene expression similar to the changes observed in polycystic ovarian syndrome. Intriguingly, such alterations seem to provide the first-generation offspring with a degree of protection against obesity when exposed to a high fat diet.
2024-06-09 | GSE240147 | GEO
Project description:The global prevalence of obesity is increasing across age and gender. The rising burden of obesity in young people contributes to the early emergence of type 2 diabetes. Having one parent obese is an independent risk factor for childhood obesity. While the detrimental impact of diet-induced maternal obesity on offspring is well established, the extent of the contribution of obese fathers is unclear, as is the role of non-genetic factors in the casual pathway. Here we show that paternal high fat diet exposure programmed M-NM-2-cell M-bM-^@M-^XdysfunctionM-bM-^@M-^Y in their F1 female offspring. Chronic high fat diet consumption in Sprague Dawley fathers led to increased body weight, adiposity, impaired glucose tolerance and insulin sensitivity. Relative to controls, their female offspring had lower body weight at day-1, increased pubertal growth rate, impaired insulin secretion and glucose tolerance, in the absence of obesity or increased adiposity. Paternal high fat diet altered the expression of 211 pancreatic islet genes in adult female offspring (P < 0.001); genes belonged to 8 functional clusters, including calcium ion binding, primary metabolic processes and ATP binding, and organ/system development. Broader KEGG pathway analysis of 2014 genes differentially expressed at the P < 0.01 level further demonstrated involvement of insulin and calcium signaling, and MAPK pathways. This is the first reported study in mammals describing non-genetic, intergenerational transmission of metabolic sequelae of high fat diet from father to offspring. These findings support a role of fathers in metabolic programming of offspring and form a framework for further studies. F0 founders were male Sprague Dawley rats, divided into two groups: high fat (HF) and control. The HF fathers were given commercially prepared high-fat pellets (43% as fat), while the controls ate standard laboratory chow (9% as fat). The two groups of fathers had distinct phenotypes; the HF fathers were significantly heavier with increased adiposity, and they were also glucose intolerant and insulin resistant. At 15 weeks of age, fathers were mated with normal females consuming chow to generate the F1 offspring. Only female offspring were studied. Female offspring were weaned unto standard laboratory chow at 3 weeks. At 6 and 12 weeks, an intraperitoneal glucose tolerance test (IpGTT) was performed to measure blood glucose and insulin profile; at 11 weeks, an intraperitoneal insulin tolerance test was done. The body weight and adiposity of these offspring were not different between the two groups. The HF offspring had glucose intolerance and impaired glucose-induced insulin response, mainly at the acute phase, observed since 6 weeks. The IpITT was not different between groups. At 14 weeks, fat was harvested from the two groups of offspring.
2014-01-20 | E-GEOD-33551 | biostudies-arrayexpress
Project description:Background: Assisted Reproductive Technologies (ART) - treatments to allow parenthood to couples facing fertility issues- have allowed the birth of > 5 million babies worldwide. Notwithstanding most of ART children are healthy at birth, several studies reported that ART may affect early-life experience causing permanent changes in fetal programming and, consequently, leading to increased predisposition to metabolic disorders in adulthood. Currently, the metabolic health status of ART children has been poorly investigated and it will take decades before large-scale population studies will be implemented. Studies on animal models indicated impaired in utero development of ART conceptuses. Relevantly, our preliminary data showed hypomethylation of liver from ART foetuses, which may contribute to the fetal programming of adult diseases. Regarding adult ART offspring, obesity, glucose intolerance and lipid accumulation in the liver have been previously described in mouse model, indicative of increased risk to develop metabolic disorders. However, little is known on the pathophysiological mechanism behind the metabolic abnormalities in ART offspring. In this context, this study investigated the influence of ART on the function of the liver, a major organ involved in the maintenance of metabolic homeostasis.
Methods: To assess the influence of ART on liver functions, proteomic analysis was carried out on adult liver from 4 months old offspring developed following Embryo Transfer (ET), in vitro culture (IVC) and blastomere biopsy (BB). Control (CTR) consisted of naturally conceived offspring. Then, to verify whether and how changes in liver proteome were associated with perturbation of the metabolic status of adult offspring, general growth and physiological parameters (e.g. glucose tolerance, insulin resistance, plasmatic levels of interleukin 6, triglycerides and total cholesterol) were assessed.
Results: Proteomic analysis of adult liver showed deregulated expression of proteins involved in lipid, carbohydrate and energy metabolism as well as cellular processes in adult offspring developed following BB, IVC and ET. Characterization of metabolic phenotype of adult offspring revealed increased body weight in ART offspring, glucose intolerance in BB, IVC, ET males and BB females, insulin resistance on BB offspring, low plasmatic level of Interleukin-6 in BB, IVC, ET males and high level of triglycerides and total cholesterol in BB females vs CTR which are phenotypic manifestation of liver disfunctions and core symptoms of metabolic syndrome.
Conclusion: Our study showed DE of proteins involved in metabolic and cellular processes, indicative of impaired hepatic functions which may contribute to the onset and progression of various diseases (e.g. NASH, NAFLD, hepatocarcinoma) in mouse offspring developed following ART. Moreover, impaired hepatic metabolism was associated with obesity, glucose intolerance, insulin resistance and dyslipidaemia which are core symptoms of metabolic syndrome and risk factor for diabetes and cardiovascular diseases in adult ART offspring. Thus, we provide evidence of Assisted Reproductive Technologies is a risk factor for perturbation of hepatic proteome, associated with the increased predisposition to liver diseases and metabolic syndrome in adulthood.
2020-05-14 | MSV000085413 | MassIVE