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Transcriptome sequencing reveals high-salt diet-induced abnormal liver metabolic pathways in mice

ABSTRACT: Transcriptome sequencing reveals high-salt diet-induced abnormal liver metabolic pathways in mice

PROVIDER: PRJNA685645 | ENA |

REPOSITORIES: ENA

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Transcriptome sequencing reveals high-salt diet-induced abnormal liver metabolic pathways in mice

Project description:we analyzed the influence of a high-salt diet on liver by transcriptome sequencing. We found that after high-salt feeding, many metabolic abnormalities had formed based on transcriptome sequencing results. Analyses of differentially expressed genes revealed that at least 15 enzyme activities and the metabolism of multiple substances were affected by a high-salt diet. Moreover, a variety of signaling, and metabolic pathways, as well as biological functions, including some known pathways and many novel ones, such as retinol metabolism, linoleic acid metabolism, steroid hormone biosynthesis, and signaling pathways, were involved in liver dysfunction due to a high-salt diet.

2020-12-17 | GSE163294 | GEO

RNA-seq analysis of metabolic tissues in high salt diet fed mice

Project description:The goal of this study is to understand the effects of high salt diet on metabolic changes in different tissues including liver, WAT and muscle through RNA-seq. Methods: Liver, WAT and muscle mRNA profiles of control WT and 12wks high salt diet fed mice were generated by RNA deep sequencing, using Illumina Hiseq 6000. Sequenced reads were trimmed for adaptor sequence, and masked for low-complexity or low-quality sequence, then mapped to mm10 whole genome using Hisat2. Results: We observed that several genes associated with de novo lipogenesis and cholesterol biosynthesis were significantly down-regulated in WAT and liver tissue of HSD mice group. Besides, combined with secretome datasets, our results further demonstrated that high salt diet could also down-regulate different organokines, and thus, possibly mediate crosstalk between different metabolic tissues Conclusions: Our study investigated the mechanisms of changed gene expression pattern of metabolic organs induced by high salt in terms of whole transcriptome profiling.

2022-03-08 | GSE197972 | GEO

Effect of a salt restriction diet on cardiac damage in a rat model of metabolic syndrome

Project description:We wanted to understand how a salt restriction diet could improve cardiac damage (ie cardiac hypertrophy, fibrosis, hypertension) in a rat model of metabolic syndrome. We thus performed an Agilent microarray experiment in order to identify expression variations in left ventricles of rats having a normal sodium diet (0,64%) or a low sodium diet (less than 0,01%)

2017-04-20 | GSE84524 | GEO

Sequencing of isolated glomeruli from low salt and high salt diet fed salt sensitve Dahl rats

Project description:We report the comparison of low salt vs high salt diet fed Dahl rat kidney glomeruli by sequencing analysis

2023-09-01 | GSE237521 | GEO

Transcriptome sequencing reveals high-salt diet-induced abnormal liver metabolic pathways in mice.

Project description: Not available

| S-EPMC8397858 | biostudies-literature

Crosstalk between two bZIP signaling pathways orchestrates salt-induced metabolic reprogramming in Arabidopsis roots

Project description:Soil salinity increasingly causes crop losses worldwide. Although roots are the primary targets of salt stress, the signaling networks that facilitate metabolic reprogramming to induce stress tolerance are less understood than those in leaves. Here, a combination of transcriptomic and metabolic approaches was performed in salt-treated Arabidopsis thaliana roots, which revealed that the group S1 basic leucine zipper transcription factors bZIP1 and bZIP53 reprogram primary C- and N-metabolism. In particular, gluconeogenesis and amino acid catabolism are affected by these transcription factors. Importantly, bZIP1 expression reflects cellular stress and energy status in roots. In addition to the well-described abiotic stress response pathway initiated by the hormone abscisic acid (ABA) and executed by SnRK2 (Snf1-RELATED-PROTEIN-KINASE2) and AREB-like bZIP factors, we identify a structurally related ABA-independent signaling module consisting of SnRK1s and S1 bZIPs. Crosstalk between these signaling pathways recruits particular bZIP factor combinations to establish at least four distinct gene expression patterns. Understanding this signaling network provides a framework for securing future crop productivity. RNA from roots from Control and salt treated hydroponically grown seedlings were extracted and subjected to microarray analysis

2015-09-02 | E-GEOD-71001 | biostudies-arrayexpress

single cell-RNA sequencing for Immune cells from mouse brain post high-salt diet

Project description:To identify the effect of high-salt diet on immune cells of brain tissues, we isolated immune cells of brain from mice fed with control diet or high-salt diet.

2022-08-24 | GSE199459 | GEO

RNA-seq analysis of metabolic tissues in high salt diet fed mice

Project description:RNA-seq analysis of metabolic tissues in high salt diet fed mice

| PRJNA813153 | ENA

Crosstalk between two bZIP signaling pathways orchestrates salt-induced metabolic reprogramming in Arabidopsis roots

2015-09-02 | GSE71001 | GEO

Calcitriol ameliorates damage in high-salt diet-induced hypertension: evidence of communication with the gut–kidney axis

Project description:Several studies have established a link between high-salt diet, inflammation, and hypertension. Vitamin D supplementation has shown anti-inflammatory effects in many diseases; gut microbiota is also associated with a wide variety of cardiovascular diseases, but potential role of vitamin D and gut microbiota in high-salt diet-induced hypertension remains unclear. Therefore, we used rats with hypertension induced by a high-salt diet as the research object and analyzed the transcriptome of their tissues (kidney and colon) and gut microbiome to conduct an overall analysis of the gut–kidney axis. We aimed to confirm the effects of high salt and calcitriol on the gut–kidney immune system and the composition of the intestinal flora. We demonstrate that consumption of a high-salt diet results in hypertension and inflammation in the colon and kidney and alteration of gut microbiota composition and function. High-salt diet-induced hypertension was found to be associated with seven microbial taxa and mainly associated with reduced production of the protective short-chain fatty acid butyrate. Calcitriol can reduce colon and kidney inflammation, and there are gene expression changes consistent with restored intestinal barrier function. The protective effect of calcitriol may be mediated indirectly by immunological properties. Additionally, the molecular pathways of the gut microbiota-mediated BP regulation may be related to circadian rhythm signals, which needs to be further investigated. An innovative association analysis of the microbiota may be a key strategy to understanding the association between gene patterns and host.

2021-10-12 | GSE184844 | GEO

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