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RNA sequencing of visceral fat tissue and E0771 tumor tissue harvested from WT and fat specific PD-L1 KO host

ABSTRACT: RNA sequencing of visceral fat tissue and E0771 tumor tissue harvested from WT and fat specific PD-L1 KO host

PROVIDER: PRJNA623345 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR11486800.fastq.gz	Fastqsanger.gz
	SRR11486801.fastq.gz	Fastqsanger.gz
	SRR11486802.fastq.gz	Fastqsanger.gz
	SRR11486803.fastq.gz	Fastqsanger.gz
	SRR11486804.fastq.gz	Fastqsanger.gz

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RNA sequencing of visceral fat tissue and E0771 tumor tissue harvested from WT and fat specific PD-L1 KO host

Project description:To study the transcriptome differences of tumor transplanted into WT and KO host, E0771 tumors harvested from WT and KO host were extracted for total RNA and mRNA sequencing was performed. To study the transcriptome differences of WT and KO fat tissue, visceral fat tissue were harvested from obese WT and KO mice and total RNA was extracted and sequenced.

2020-07-31 | GSE148149 | GEO

Brown Adipose Tissue (BAT) in Visceral Fat Depot

Project description:Case story. A patient with massive infiltration of the visceral adipose tissue depot by BAT in a patient with a catecholamine secreting paraganglioma. BAT tissue was identified by protein expression of UCP1 (western blotting and immunostaining) The goal of the study is to identify patterns of gene expression in BAT containing visceral fat compared to the patient's own subcutanous fat which did not express BAT. For comparison a pool of mRNA isolated from visceral fat from obese subjects was used. Patient Case, Gene expression array from a biopsy from the patient's visceral fat and a biopsy from the subcutaneous fat compared to one array of mRNA from the visceral depot pooled from a group of obese subjects

2014-08-12 | E-GEOD-49795 | biostudies-arrayexpress

Brown Adipose Tissue (BAT) in Visceral Fat Depot

2014-08-12 | GSE49795 | GEO

Gene expression profile at single cell level of CD45+ immune cells from E0771-Vector control tumor tissue, E0771 wildtype Malt1 overexpression tumor tissue and E0771 paracaspase-deficient Malt1 overexpression tumor tissue.

Project description:To invesitigate the additional paracaspase-independent tumor-promoting effect exist for Malt1. We thus collected E0771-Vector control tumor tissue, E0771 wildtype Malt1 (Malt1-WT) overexpression tumor tissue and E0771 paracaspase-deficient Malt1 (Malt1-PD) overexpression tumor tissue, and sorted out immune cells for 10× Genomics single cell RNA-sequencing (scRNA-seq).

2024-04-18 | GSE242554 | GEO

Paracrine Signaling in Visceral Fat

Project description:Accumulation of visceral (VIS) as opposed to subcutaneous (SUB) fat is a predictor of metabolic disorders, insulin resistance, and cardiovascular disease. This is due in part to the limited capacity of VIS fat to buffer lipids allowing them to deposit in insulin-sensitive tissues, thus impairing insulin action. In addition, VIS adipose tissue is more prone to fibrosis and inflammation, which in turn contributes to the pathogenesis of metabolic disease. Mechanisms underlying selective hypertrophic growth and tissue remodeling properties of VIS fat are not well understood. We and others identified subsets of adipose progenitors (APs) unique to VIS fat with differential adipogenic capacity. We named these CD34+ APs VIS low and VIS high based on low or high CD34 expression respectively. Despite sharing the same developmental origin, VIS low APs are adipogenic whereas VIS high APs are not. Furthermore, VIS high APs inhibit adipogenic differentiation of SUB and VIS low APs in vitro through the secretion of soluble inhibitory factor(s) including insulin-like growth factor binding protein 2 (Igfbp2). The number of VIS high APs increased with VIS adipose tissue expansion and their abundance in vivo causes hypertrophic growth, fibrosis, inflammation and impaired glucose and insulin tolerance. This study unveil the presence of APs unique to VIS fat involved in the paracrine regulation of adipogenesis and tissue remodeling.

2024-05-21 | PXD014672 | Pride

CT colonography, Visceral Fat Analysis, Adiponectin and Colorectal tumor risk

Project description:Interventions: CT colonography Primary outcome(s): Evaluation of relationship of CT colonograhy, Visceral Fat Analysis, Adiponectin for Colorectal tumor risk Study Design: Single arm Non-randomized

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Visceral fat trancriptome in obstructive sleep apnea

Project description:Rationale: Obstructive sleep apnea (OSA) has been associated with metabolic dysregulation and systemic inflammation. This may be due to pathophysiologic effects of OSA on visceral adipose tissue. We sought to assess the transcriptional consequences of OSA on adipocytes by utilizing pathway-focused analyses. Methods: Patients scheduled to undergo ventral hernia repair surgery were recruited to wear a portable home sleep monitor for two nights prior to surgery. Visceral fat biopsies were obtained intra-operatively. RNA was extracted and whole-genome expression profiling was performed. Gene Set Enrichment Analysis (GSEA) was used to identify curated gene sets that were differentially enriched in OSA subjects. Network analysis was applied to a select set of highly enriched pathways. Results: 10 patients with OSA and 8 control subjects were recruited. There were no differences in age, gender, body mass index between the two groups, but the OSA subjects had a significantly higher respiratory disturbance index (19.2 vs. 0.6, P-value 0.05) and worse hypoxemia (minimum oxygen saturation 79.7% vs. 87.8%, P-value < 0.001). GSEA identified a number of gene sets up-regulated in adipose tissue of OSA patients including the pro-inflammatory NF-M-NM-:B pathway and the proteolytic ubiquitin/proteasome module. A critical metabolic pathway, the peroxisome proliferator-activated receptor (PPAR), was down-regulated in subjects with OSA. Network analysis linked members of these modules together and identified regulatory hubs. Conclusions: OSA is associated with alterations in visceral fat gene expression. Pathway-based network analysis highlighted perturbations in several key pathways whose coordinated interactions may contribute to the metabolic dysregulation observed in this complex disorder. Total RNA from visceral fat of 18 subjects (10 OSA, 8 Control) was hybridized to 18 Affymetrix Genechip Human Gene 1.0 ST microarrays.

2012-09-01 | E-GEOD-38792 | biostudies-arrayexpress

The Hidden Culprit of Visceral Fat: Dysfunctional Subcutaneous Adipose Tissue – Adipose tissue proteomics

Project description:To investigate the proteomic profiles of paired subcutaneous adipose tissue (SAT) and visceral adipose tissue (VAT) samples, as well as their correlations with clinical traits in severely obese patients, and to identify potential serum protein markers associated with tissue expression or metabolic states.

2023-10-16 | PXD041721 | Pride

MicroRNA expression in subcutaneous and visceral fat of beef steers fed different high or low fat diets

Project description:MicroRNAs are a class of molecular regulators found to participate in numerous biological processes, including adipogenesis. However, whether dietary changes impact on microRNA (miRNA) in ruminants has not been reported. Therefore, this study aimed to evaluate the dietary effect on miRNA expression in subcutaneous (backfat) and visceral fat depots (perirenal fat) from beef steers fed with different diets containing high or low fat levels. Fat tissues were collected from 16 Hereford x Aberdeen Angus cross bred steers (15.5 month old) fed high fat diet (5.85% fat, n=8) or control diet (1.95% fat, n=8). Total RNA from each animal was subjected to miRNA microarray analysis using a customized Agilent miRNA microarray containing 672 bovine miRNA probes. Expression of miRNAs was not equally detected under two diets; 169 miRNAs were commonly expressed while 75 were diet specific. The number of miRNAs detected per animal under high fat diet was higher than those fed control diet (p= 0.037 in subcutaneous fat and p= 0.002 in visceral fat).. Further qRT-PCR analysis confirmed that the expression of some miRNAs was highly influenced by diet (miR-19a, -92a, -92b, -101, -103, -106, -142-5p, and 296) or fat depot (miR-196a and -2454). Our results revealed that the miRNA expression can be influenced by types of fat tissues or diet, suggesting that miRNAs may regulate bovine adipogenesis when diet alters. In this study, a total of 32 adipose tissue samples were analyzed by microRNA microarrays, being 16 subcutaneus (backfat) and 16 visceral (perirenal fat) fat depots were collected from 16 animals (Control diet = 8) (High fat diet = 8).

2012-06-30 | E-GEOD-35012 | biostudies-arrayexpress

The Hidden Culprit of Visceral Fat: Dysfunctional Subcutaneous Adipose Tissue – Serum proteomics

2024-05-24 | PXD041750 | Pride