A systematic investigation of clear cell renal cell carcinoma using meta-analysis and systems biology approaches.
Babak SokoutiPublished in: Molecular genetics and genomics : MGG (2024)
Renal cell carcinoma with clear cells (ccRCC) is the most frequent kind; it accounts for almost 70% of all kidney cancers. A primary objective of current research was to find genes that may be used in ccRCC gene therapy to understand better the molecular pathways underlying the disease. Based on PubMed microarray searches and meta-analyses, we compared overall survival and recurrence-free survival rates in ccRCC patients with those in healthy samples. The technique was followed by a KEGG pathway and Gene Ontology (GO) function analyses, both performed in conjunction with the approach. Tumor immune estimate and multi-gene biomarkers validation for clinical outcomes were performed at the molecular and clinical cohort levels. Our analysis included fourteen GEO datasets based on inclusion and exclusion criteria. A meta-analysis procedure, network construction using PPIs, and four significant gene identification standard algorithms indicated that 11 genes had the most important differences. Ten genes were upregulated, and one was downregulated in the study. In order to analyze RFS and OS survival rates, 11 genes expressed in the GEPIA2 database were examined. Nearly nine of eleven significant genes have been found to beinvolved in tumor immunity. Furthermore, it was found that mRNA expression levels of these genes were significantly correlated with experimental literature studies on ccRCCs, which explained these findings. This study identified eleven gene panels associated with ccRCC growth and metastasis, as well as their immune system infiltration.
Keyphrases
- genome wide identification
- genome wide
- bioinformatics analysis
- free survival
- systematic review
- genome wide analysis
- copy number
- meta analyses
- transcription factor
- dna methylation
- machine learning
- renal cell carcinoma
- gene therapy
- induced apoptosis
- gene expression
- cell proliferation
- cell death
- oxidative stress
- cell cycle arrest
- single molecule