Detection of LUAD-Associated Genes Using Wasserstein Distance in Multi-Omics Feature Selection
Shaofei Zhao, Siming Huang, Kexuan Li, Weiyu Zhou, Lingli Yang, Shige, Wang

TL;DR
This paper introduces a novel multi-omics feature selection method using Wasserstein distance to identify genes associated with Tumor Mutational Burden in lung adenocarcinoma, enhancing biomarker discovery.
Contribution
It proposes a Wasserstein distance-based feature selection approach for multi-omics data, improving identification of genes linked to TMB in LUAD.
Findings
Identified 13 genes strongly associated with TMB
Compared feature selection methods and found PC-Screen, DC-SIS, WD-Screen top performers
Provided insights into genetic drivers of TMB in LUAD
Abstract
Lung adenocarcinoma (LUAD) is characterized by substantial genetic heterogeneity, posing challenges in identifying reliable biomarkers for improved diagnosis and treatment. Tumor Mutational Burden (TMB) has traditionally been regarded as a predictive biomarker, given its association with immune response and treatment efficacy. In this study, we treated TMB as a response variable to identify genes highly correlated with it, aiming to understand its genetic drivers. We conducted a thorough investigation of recent feature selection methods through extensive simulations, selecting PC-Screen, DC-SIS, and WD-Screen as top performers. These methods handle multi-omics structures effectively, and can accommodate both categorical and continuous data types at the same time for each gene. Using data from The Cancer Genome Atlas (TCGA) via cBioPortal, we combined copy number alteration (CNA), mRNA…
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Taxonomy
TopicsRNA modifications and cancer · Machine Learning in Bioinformatics · Cancer-related molecular mechanisms research
