miRbiom: Machine-learning on Bayesian causal nets of RBP-miRNA interactions successfully predicts miRNA profiles

Formation of mature miRNAs and their expression is a highly controlled process. It is very much dependent upon the post-transcriptional regulatory events. Recent findings suggest that several RNA binding proteins beyond Drosha/Dicer are involved in the processing of miRNAs. Deciphering of conditiona...

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Veröffentlicht in:PloS one 2021-10, Vol.16 (10), p.e0258550-e0258550
Hauptverfasser: Pradhan, Upendra Kumar, Sharma, Nitesh Kumar, Kumar, Prakash, Kumar, Ashwani, Gupta, Sagar, Shankar, Ravi
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Sharma, Nitesh Kumar
Kumar, Prakash
Kumar, Ashwani
Gupta, Sagar
Shankar, Ravi
description Formation of mature miRNAs and their expression is a highly controlled process. It is very much dependent upon the post-transcriptional regulatory events. Recent findings suggest that several RNA binding proteins beyond Drosha/Dicer are involved in the processing of miRNAs. Deciphering of conditional networks for these RBP-miRNA interactions may help to reason the spatio-temporal nature of miRNAs which can also be used to predict miRNA profiles. In this direction, >25TB of data from different platforms were studied (CLIP-seq/RNA-seq/miRNA-seq) to develop Bayesian causal networks capable of reasoning miRNA biogenesis. The networks ably explained the miRNA formation when tested across a large number of conditions and experimentally validated data. The networks were modeled into an XGBoost machine learning system where expression information of the network components was found capable to quantitatively explain the miRNAs formation levels and their profiles. The models were developed for 1,204 human miRNAs whose accurate expression level could be detected directly from the RNA-seq data alone without any need of doing separate miRNA profiling experiments like miRNA-seq or arrays. A first of its kind, miRbiom performed consistently well with high average accuracy (91%) when tested across a large number of experimentally established data from several conditions. It has been implemented as an interactive open access web-server where besides finding the profiles of miRNAs, their downstream functional analysis can also be done. miRbiom will help to get an accurate prediction of human miRNAs profiles in the absence of profiling experiments and will be an asset for regulatory research areas. The study also shows the importance of having RBP interaction information in better understanding the miRNAs and their functional projectiles where it also lays the foundation of such studies and software in future.
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subjects Analysis
Bayesian analysis
Bayesian statistical decision theory
Bioinformatics
Biology
Biology and life sciences
Biosynthesis
Computer and Information Sciences
Evaluation
Experiments
Functional analysis
Genetic transcription
Learning algorithms
Machine learning
Mathematical models
MicroRNA
miRNA
Networks
Physical Sciences
Post-transcription
Projectiles
Research and Analysis Methods
Ribonucleic acid
RNA
RNA-binding protein
title miRbiom: Machine-learning on Bayesian causal nets of RBP-miRNA interactions successfully predicts miRNA profiles
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