bioRxivBioinformaticsPreprint
OmicSelector: automatic feature selection and deep learning modeling for omic experiments.
Konrad StawiskiiD, Marcin KaszkowiakiD, Damian MikulskiiD, Piotr HogendorfiD, Adam DurczyńskiiD, Janusz StrzelczykiD, Dipanjan ChowdhuryiD, Wojciech M FendleriD
Abstract
A crucial phase of modern biomarker discovery studies is selecting the most promising features from high-throughput screening assays. Here, we present the OmicSelector - Docker-based web application and R package that facilitates the analysis of such experiments. OmicSelector provides a consistent and overfitting-resilient pipeline that integrates 94 feature selection approaches based on 25 distinct variable selection methods. It identifies and then ranks the best feature sets using 11 modeling techniques with hyperparameter optimization in hold-out or cross-validation. OmicSelector provides classification performance metrics for proposed feature sets, allowing researchers to choose the overfitting-resistant biomarker set with the highest diagnostic potential. Finally, it performs GPU-accelerated development, validation, and implementation of deep learning feedforward neural networks (up to 3 hidden layers, with or without autoencoders) on selected signatures. The application performs an extensive grid search of hyperparameters, including balancing and preprocessing of next-generation sequencing (e.g. RNA-seq, miRNA-seq) oraz qPCR data. The pipeline is applicable for determining candidate circulating or tissue miRNAs, gene expression data and methylomic, metabolomic or proteomic analyses. As a case study, we use OmicSelector to develop a diagnostic test for pancreatic and biliary tract cancer based on serum small RNA next-generation sequencing (miRNA-seq) data. The tool is open-source and available at https://biostat.umed.pl/OmicSelector/
- assay: bulk RNA-seq
- assay: metabolomics
- assay: proteomics
- assay: DNA methylation
- research focus: benchmarking
- research focus: dimensionality reduction
- research focus: differential expression
- research focus: gene regulatory network inference
- approach: machine learning (classical)
- approach: deep learning
- Citations
- 8
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