iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning Algorithm

One of the most common and well studied post-transcription modifications in RNAs is N6-methyladenosine (m6A) which has been involved with a wide range of biological processes. Over the past decades, N6-methyladenosine produced some positive consequences through the high-throughput laboratory techniq...

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Main Authors: Omid Mahmoudi, Abdul Wahab, Kil To Chong
Format: Article
Language:English
Published: MDPI AG 2020-05-01
Series:Genes
Subjects:
Online Access:https://www.mdpi.com/2073-4425/11/5/529
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spelling doaj-bf5e28bc43f746e4b0b3f478fc31d3652020-11-25T02:04:34ZengMDPI AGGenes2073-44252020-05-011152952910.3390/genes11050529iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning AlgorithmOmid Mahmoudi0Abdul Wahab1Kil To Chong2Department of Electronics and Information Engineering, Jeonbuk National University, Jeonju 54896, KoreaDepartment of Electronics and Information Engineering, Jeonbuk National University, Jeonju 54896, KoreaAdvanced Electronics and Information Research Center, Jeonbuk National University, Jeonju 54896, KoreaOne of the most common and well studied post-transcription modifications in RNAs is N6-methyladenosine (m6A) which has been involved with a wide range of biological processes. Over the past decades, N6-methyladenosine produced some positive consequences through the high-throughput laboratory techniques but still, these lab processes are time consuming and costly. Diverse computational methods have been proposed to identify m6A sites accurately. In this paper, we proposed a computational model named iMethyl-deep to identify m6A <i>Saccharomyces Cerevisiae</i> on two benchmark datasets M6A2614 and M6A6540 by using single nucleotide resolution to convert RNA sequence into a high quality feature representation. The iMethyl-deep obtained 89.19% and 87.44% of accuracy on M6A2614 and M6A6540 respectively which show that our proposed method outperforms the state-of-the-art predictors, at least 8.44%, 8.96%, 8.69% and 0.173 on M6A2614 and 15.47%, 28.52%, 25.54 and 0.5 on M6A6540 higher in terms of four metrics Sp, Sn, ACC and MCC respectively. Meanwhile, M6A6540 dataset never used to train a model.https://www.mdpi.com/2073-4425/11/5/529RNA N6-methyladenosine siteyeast genomemethylationcomputational biologydeep learningbioinformatics
collection DOAJ
language English
format Article
sources DOAJ
author Omid Mahmoudi
Abdul Wahab
Kil To Chong
spellingShingle Omid Mahmoudi
Abdul Wahab
Kil To Chong
iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning Algorithm
Genes
RNA N6-methyladenosine site
yeast genome
methylation
computational biology
deep learning
bioinformatics
author_facet Omid Mahmoudi
Abdul Wahab
Kil To Chong
author_sort Omid Mahmoudi
title iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning Algorithm
title_short iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning Algorithm
title_full iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning Algorithm
title_fullStr iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning Algorithm
title_full_unstemmed iMethyl-Deep: N6 Methyladenosine Identification of Yeast Genome with Automatic Feature Extraction Technique by Using Deep Learning Algorithm
title_sort imethyl-deep: n6 methyladenosine identification of yeast genome with automatic feature extraction technique by using deep learning algorithm
publisher MDPI AG
series Genes
issn 2073-4425
publishDate 2020-05-01
description One of the most common and well studied post-transcription modifications in RNAs is N6-methyladenosine (m6A) which has been involved with a wide range of biological processes. Over the past decades, N6-methyladenosine produced some positive consequences through the high-throughput laboratory techniques but still, these lab processes are time consuming and costly. Diverse computational methods have been proposed to identify m6A sites accurately. In this paper, we proposed a computational model named iMethyl-deep to identify m6A <i>Saccharomyces Cerevisiae</i> on two benchmark datasets M6A2614 and M6A6540 by using single nucleotide resolution to convert RNA sequence into a high quality feature representation. The iMethyl-deep obtained 89.19% and 87.44% of accuracy on M6A2614 and M6A6540 respectively which show that our proposed method outperforms the state-of-the-art predictors, at least 8.44%, 8.96%, 8.69% and 0.173 on M6A2614 and 15.47%, 28.52%, 25.54 and 0.5 on M6A6540 higher in terms of four metrics Sp, Sn, ACC and MCC respectively. Meanwhile, M6A6540 dataset never used to train a model.
topic RNA N6-methyladenosine site
yeast genome
methylation
computational biology
deep learning
bioinformatics
url https://www.mdpi.com/2073-4425/11/5/529
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