ArticleMethods (San Diego, Calif.)2022
Penguin: A tool for predicting pseudouridine sites in direct RNA nanopore sequencing data.
Article in Methods (San Diego, Calif.), 2022. The graph could read no effect estimate from its abstract, so it casts no vote on the map. Cited by 41 papers.
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Who cites it
41 citing papers in PubMed, 51 citations in OpenAlex.
- Compendium of RNA modifications for bacterial stress adaptation.Microbiology and molecular biology reviews : MMBR · 2026Review
- Ψ-Atlas: An Integrated Atlas for Pseudouridine Epitranscriptome.Genomics, proteomics & bioinformatics · 2026Article
- ModiCal: A Targeted Calibration Workflow for Site-Specific mACS chemical biology · 2026Article
- Systematic benchmarking of dorado basecalling models for RNA modification detection with highly multiplexed nanopore sequencing.Nucleic acids research · 2026Article
- Nanopore direct RNA sequencing and the epitranscriptome: Advances in mapping native RNA landscapes.iMeta · 2026Review
- Systematic assessment of diverse RNA modifications using nanopore direct RNA sequencing.Nucleic acids research · 2026Article
- Probing the epitranscriptome and RNA damage with nanopore direct RNA sequencing.RNA (New York, N.Y.) · 2026Review
- Nanopore direct RNA sequencing for RNA modification analysis: workflow assessment and computational tool benchmarking.Advanced biotechnology · 2026Article
- Epitranscriptomic modifications in embryonic development: insights into natural and ART-induced mechanisms and implications.Human reproduction update · 2026Review
- Advances in Detecting RNA Modifications Using Direct RNA Nanopore Sequencing.Advanced genetics (Hoboken, N.J.) · 2025Review
- Investigating RNA dynamics from single molecule transcriptomes.Trends in genetics : TIG · 2025Review
- Transcriptomics in the era of long-read sequencing.Nature reviews. Genetics · 2025Review
- ModiDeC: a multi-RNA modification classifier for direct nanopore sequencing.Nucleic acids research · 2025Article
- De novo non-canonical nanopore basecalling enables private communication using heavily-modified DNA data at single-molecule level.Nature communications · 2025Article
- The RMaP challenge of predicting RNA modifications by nanopore sequencing.Communications chemistry · 2025Article
- Small nucleolar RNAs: the hidden precursors of cancer ribosomes.Philosophical transactions of the Royal Society of London. Series B, Biological sciences · 2025Review
- The detection, function, and therapeutic potential of RNA 2'-O-methylation.The innovation life · 2025Article
- Molecular Insights into RNA Modifications and Their Role in Shaping Immune Responses and Tumor Microenvironments.Current gene therapy · 2025Review
- Simultaneous nanopore profiling of mRNA mNature biotechnology · 2024Article
- Native RNA nanopore sequencing reveals antibiotic-induced loss of rRNA modifications in the A- and P-sites.Nature communications · 2024Article
Corrections and comments
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Authors and funding
5 authors at 2 institutions in 2 countries.
Funding
Abstract
Pseudouridine is one of the most abundant RNA modifications, occurring when uridines are catalyzed by Pseudouridine synthase proteins. It plays an important role in many biological processes and has been reported to have application in drug development. Recently, the single-molecule sequencing techniques such as the direct RNA sequencing platform offered by Oxford Nanopore technologies have enabled direct detection of RNA modifications on the molecule being sequenced. In this study, we introduce a tool called Penguin that integrates several machine learning (ML) models to identify RNA Pseudouridine sites on Nanopore direct RNA sequencing reads. Pseudouridine sites were identified on single molecule sequencing data collected from direct RNA sequencing resulting in 723 K reads in Hek293 and 500 K reads in Hela cell lines. Penguin extracts a set of features from the raw signal measured by the Oxford Nanopore and the corresponding basecalled k-mer. Those features are used to train the predictors included in Penguin, which in turn, can predict whether the signal is modified by the presence of Pseudouridine sites in the testing phase. We have included various predictors in Penguin, including Support vector machines (SVM), Random Forest (RF), and Neural network (NN). The results on the two benchmark data sets for Hek293 and Hela cell lines show outstanding performance of Penguin either in random split testing or in independent validation testing. In random split testing, Penguin has been able to identify Pseudouridine sites with a high accuracy of 93.38% by applying SVM to Hek293 benchmark dataset. In independent validation testing, Penguin achieves an accuracy of 92.61% by training SVM with Hek293 benchmark dataset and testing it for identifying Pseudouridine sites on Hela benchmark dataset. Thus, Penguin outperforms the existing Pseudouridine predictors in the literature by 16 % higher accuracy than those predictors using independent validation testing. Employing penguin to predict Pseudouridine sites revealed a significant enrichment of "regulation of mRNA 3'-end processing" in Hek293 cell line and 'positive regulation of transcription from RNA polymerase II promoter involved in cellular response to chemical stimulus' in Hela cell line. Penguin software and models are available on GitHub at https://github.com/Janga-Lab/Penguin and can be readily employed for predicting Ψ sites from Nanopore direct RNA-sequencing datasets.
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