TransPTM: a transformer-based model for non-histone acetylation site prediction

Author:

Meng Lingkuan1ORCID,Chen Xingjian2ORCID,Cheng Ke3ORCID,Chen Nanjun1ORCID,Zheng Zetian1ORCID,Wang Fuzhou1ORCID,Sun Hongyan3ORCID,Wong Ka-Chun14ORCID

Affiliation:

1. Department of Computer Science, City University of Hong Kong , Tat Chee Avenue, Kowloon , Hong Kong

2. Cutaneous Biology Research Center, Massachusetts General Hospital, Harvard Medical School , MA 02138 , United States

3. Department of Chemistry, City University of Hong Kong , Tat Chee Avenue, Kowloon , Hong Kong

4. Shenzhen Research Institute, City University of Hong Kong , Shenzhen , China

Abstract

Abstract Protein acetylation is one of the extensively studied post-translational modifications (PTMs) due to its significant roles across a myriad of biological processes. Although many computational tools for acetylation site identification have been developed, there is a lack of benchmark dataset and bespoke predictors for non-histone acetylation site prediction. To address these problems, we have contributed to both dataset creation and predictor benchmark in this study. First, we construct a non-histone acetylation site benchmark dataset, namely NHAC, which includes 11 subsets according to the sequence length ranging from 11 to 61 amino acids. There are totally 886 positive samples and 4707 negative samples for each sequence length. Secondly, we propose TransPTM, a transformer-based neural network model for non-histone acetylation site predication. During the data representation phase, per-residue contextualized embeddings are extracted using ProtT5 (an existing pre-trained protein language model). This is followed by the implementation of a graph neural network framework, which consists of three TransformerConv layers for feature extraction and a multilayer perceptron module for classification. The benchmark results reflect that TransPTM has the competitive performance for non-histone acetylation site prediction over three state-of-the-art tools. It improves our comprehension on the PTM mechanism and provides a theoretical basis for developing drug targets for diseases. Moreover, the created PTM datasets fills the gap in non-histone acetylation site datasets and is beneficial to the related communities. The related source code and data utilized by TransPTM are accessible at https://www.github.com/TransPTM/TransPTM.

Funder

National Natural Science Foundation of China

Shenzhen Research Institute

City University of Hong Kong

Research Grants Council of the Hong Kong Special Administrative Region

Innovation and Technology Commission

Publisher

Oxford University Press (OUP)

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