GP130 Antagonism in Porcine RV Failure
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA1215936 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR32130877.fastq.gz | Fastqsanger.gz | |||
| SRR32130878.fastq.gz | Fastqsanger.gz | |||
| SRR32130879.fastq.gz | Fastqsanger.gz | |||
| SRR32130880.fastq.gz | Fastqsanger.gz | |||
| SRR32130881.fastq.gz | Fastqsanger.gz |
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Project description:We evaluated the effects of GP130 antagonism via the small molecule SC144 on the cellular landscape of the RV free wall using single nucleus RNAseq
2025-05-27 | GSE288047 | GEO
Project description:Right ventricular (RV) failure plays a critical role in any type of heart failure. However, there is no specific therapy developed for RV failure. To understand RV failure, we focused on the RV specific genes. Global gene expression analysis showed that alternative complement pathway-related genes including C3 and Cfd were significantly upregulated in right ventricle in murine heart. We generated the RV failure by right ventricle-specific pressure overload model mice, pulmonary artery constriction (PAC), which induces RV failure around 14 days. In C3 knockout (C3KO) mice, PAC-induced RV dysfunction and fibrosis were significantly attenuated. C3a is produced from C3 by C3 convertase complex including Cfd. Cfd knockout mice also attenuated PAC-induced RV failure. Moreover, C3a receptor (C3aR) antagonist dramatically improved PAC-induced RV dysfunction in wild type mice. Here we revealed the crucial role of C3-Cfd-C3a-C3aR axis in RV failure and highlight the potential therapeutic target for RV failure with no pharmacologic option.
2021-09-07 | GSE183504 | GEO
Project description:TMT10plex analysis of microtubule associated proteins from right ventricular extracts of 3 control rats, 3 monocrotaline rats, and 4 monocrotaline rats treated with the GP130 antagonist SC144.
2021-07-19 | MSV000087852 | MassIVE
Project description:Background: In complex congenital heart disease patients such as those with tetralogy of Fallot, the right ventricle (RV) is subject to pressure overload, leading to RV hypertrophy and eventually RV failure. The mechanisms that promote the transition from stable RV hypertrophy to RV failure are unknown. We evaluated the role of mitochondrial bioenergetics in the development of RV failure. Methods: We created a murine model of RV pressure overload by pulmonary artery banding and compared with sham-operated controls. Gene expression by RNA-sequencing, oxidative stress, mitochondrial respiration, dynamics, and structure were assessed in pressure overload-induced RV failure. Results: RV failure was characterized by decreased expression of electron transport chain genes and mitochondrial antioxidant genes (aldehyde dehydrogenase 2 and superoxide dismutase 2) and increased expression of oxidant stress markers (heme oxygenase, 4-hydroxynonenal). The activities of all electron transport chain complexes decreased with RV hypertrophy and further with RV failure (oxidative phosphorylation: sham 552.3±43.07 vs. RV hypertrophy 334.3±30.65 vs. RV failure 165.4±36.72 pmol/(sec*ml), p<0.0001). Mitochondrial fission protein DRP1 did not change, while MFF decreased and fusion protein OPA1 decreased. In contrast, transcription of electron transport chain genes increased in the left ventricle of RV failure. Conclusion: Pressure overload-induced RV failure is characterized by decreased transcription and activity of electron transport chain complexes and increased oxidative stress which are associated with decreased energy generation. An improved understanding of the complex processes of energy generation could aid in developing novel therapies to mitigate mitochondrial dysfunction and delay the onset of RV failure.
2021-03-18 | GSE152413 | GEO
Project description:Right ventricular (RV) failure plays a critical role in any type of heart failure. However, there is no specific therapy developed for RV failure. To understand RV failure, we focused on the RV specific genes. Global gene expression analysis showed that alternative complement pathway-related genes including C3 and Cfd were significantly upregulated in right ventricle in murine heart. We generated the RV failure by right ventricle-specific pressure overload model mice, pulmonary artery constriction (PAC), which induces RV failure around 14 days. After administration of C3a receptor (C3aR) antagonist, RV function was dramatically improved PAC-induced RV dysfunction in wild type mice. To investigate the role of C3a to cardiomyocyte, C3a recombinant protein was administerd to neonatal rat ventricular myocytes (NRVMs), the results that several MAP kinesis were phosphorylated by C3a. In turn, to identify the key expressed genes as downstream of C3a in NRVMs, global gene expression analysis was performed in vitro.
2021-09-07 | GSE183503 | GEO
Project description:In our chemogenetic rat heart failure model, LV and RV transcriptomic analysis was performed by RNA-seq
2022-02-06 | GSE195913 | GEO
Project description:Background: Right ventricular (RV) and left ventricular (LV) myocardium differ in their response to pressure-overload hypertrophy (POH). In this report we use microarray and proteomic analyses to identify pathways modulated by LV-, and RV-POH in the immature heart. Methods: Newborn New Zealand White rabbits underwent banding of the descending thoracic aorta (LV-POH; n=6). RV-POH was achieved by banding the pulmonary artery (n=6). Sham–control animals (SC; n=6 each) were sham-manipulated. Following 4 (LV-POH) and 6 weeks (RV-POH) recovery, the hearts were removed and matched sample RNA and proteins were isolated for microarray and proteomic analysis. Results: There was no difference in body weight in RV-, LV-POH vs. SC but there was a significant increase vs. SC in RV (3.2±0.8g vs. 1.2±0.3g; P<0.01) and LV weight (7.08±0.6g vs. 4.02±0.2g; P<0.01). Fractional area change (RV-POH) and shortening fraction (LV-POH) decreased significantly (23±6 vs. 47±6 and 21±4 vs.44±2, respectively, P<0.01). Microarray analysis demonstrated that LV-POH enriched pathways for oxidative phosphorylation, mitochondria energy pathways, actin, ILK, hypoxia, calcium and protein kinase-A signalling. RV-POH enriched pathways for cardiac oxidative phosphorylation. Proteomic analysis revealed 19 proteins were uniquely expressed in LV-POH vs. SC. Functional annotation clustering analysis indicated significant enrichment for the mitochondrion, cellular macromolecular complex assembly and oxidative phosphorylation. RV-POH had 15 uniquely expressed proteins vs. SC. Functional annotation clustering analysis indicated significant enrichment in structural constituents of muscle, cardiac muscle tissue development and calcium handling. Conclusion: Our results identify unique transcript and protein expression profiles in LV, RV-POH and provide new insight into the biological basis of ventricular specific hypertrophy. 3 different conditions: PAB-RV vs. Sham-control RV, PAB-RV [test] vs. PAB-LV [control], AOB-LV vs. Sham-control LV.
2011-06-24 | E-GEOD-30194 | biostudies-arrayexpress
Project description:GDF15 antagonism limits severe heart failure and prevents cardiac cachexia in mice
| PRJEB61161 | ENA
Project description:Background: Adults with at least one copy of the minor allele in the rs6967330 SNP (AA/AG) in the rhinovirus (RV) receptor Cadherin related family member 3 gene (CDHR3), have a higher risk for CRS than those with two copies of the major allele (GG). Objective: To determine if the rs6967330 SNP increased the risk for acute exacerbations of chronic rhinosinusitis (AECRS) in adults and identify if their nasal cells showed a distinct pathophysiologic process activated by RV infection. Methods: We recruited adults with CRS (AG/AA,n=17; GG,n=37) and at baseline collected sinonasal outcome tests (SNOT-22), objective endoscopy scores, and nasal brushings for cells and RV viral detection. Subjects were contacted every two weeks for AECRS over one year, and if symptomatic this data was re-collected. To determine the effect of the rs6967330 SNP, air-liquid-interface (ALI) cultures were derived from nasal samples (AG/AA,n=19; GG,n=19). Cytokines and RNA transcriptome responses were measured 48 hours-post viral challenge with RV-A, RV-B, and RV-C. Results: During AECRS, adults with the AA/AG allele had 1.6x higher SNOT-22 scores, 2x higher endoscopic scores, and were 4x more likely to have RV infections during AECRS than those with the GG allele. (AA/AG) ALI cultures had significantly greater virus replication of RV-A (2.4x) and RV-C (3.5x) but not RV-B, higher levels of inflammatory cytokines, and significantly increased interferon-related pathways compared to (GG) ALI cultures. Conclusions: The minor allele in the rs6967330 SNP increases the risk for AECRS disease severity and is associated with an aberrant interferon-mediated inflammatory response to both RV-A and RV-C infections.
2024-09-12 | GSE270312 | GEO
Project description:Background: Right ventricular (RV) and left ventricular (LV) myocardium differ in their response to pressure-overload hypertrophy (POH). In this report we use microarray and proteomic analyses to identify pathways modulated by LV-, and RV-POH in the immature heart. Methods: Newborn New Zealand White rabbits underwent banding of the descending thoracic aorta (LV-POH; n=6). RV-POH was achieved by banding the pulmonary artery (n=6). Sham–control animals (SC; n=6 each) were sham-manipulated. Following 4 (LV-POH) and 6 weeks (RV-POH) recovery, the hearts were removed and matched sample RNA and proteins were isolated for microarray and proteomic analysis. Results: There was no difference in body weight in RV-, LV-POH vs. SC but there was a significant increase vs. SC in RV (3.2±0.8g vs. 1.2±0.3g; P<0.01) and LV weight (7.08±0.6g vs. 4.02±0.2g; P<0.01). Fractional area change (RV-POH) and shortening fraction (LV-POH) decreased significantly (23±6 vs. 47±6 and 21±4 vs.44±2, respectively, P<0.01). Microarray analysis demonstrated that LV-POH enriched pathways for oxidative phosphorylation, mitochondria energy pathways, actin, ILK, hypoxia, calcium and protein kinase-A signalling. RV-POH enriched pathways for cardiac oxidative phosphorylation. Proteomic analysis revealed 19 proteins were uniquely expressed in LV-POH vs. SC. Functional annotation clustering analysis indicated significant enrichment for the mitochondrion, cellular macromolecular complex assembly and oxidative phosphorylation. RV-POH had 15 uniquely expressed proteins vs. SC. Functional annotation clustering analysis indicated significant enrichment in structural constituents of muscle, cardiac muscle tissue development and calcium handling. Conclusion: Our results identify unique transcript and protein expression profiles in LV, RV-POH and provide new insight into the biological basis of ventricular specific hypertrophy.
2011-06-24 | GSE30194 | GEO