<scp>MREDTA</scp> : A <scp>BERT</scp> and transformer‐based molecular representation encoder for predicting drug‐target binding affinity

Drug-target binding affinity (DTA) prediction is vital for drug repositioning. The accuracy and generalizability of DTA models remain a major challenge. Here, we develop a model composed of BERT-Trans Block, Multi-Trans Block, and DTI Learning modules, referred to as Molecular Representation Encoder-based DTA prediction (MREDTA). MREDTA has three advantages: (1) extraction of both local and global molecular features simultaneously through skip connections; (2) improved sensitivity to molecular structures through the Multi-Trans Block; (3) enhanced generalizability through the introduction of BERT. Compared with 12 advanced models, benchmark testing of KIBA and Davis datasets demonstrated optimal performance of MREDTA. In case study, we applied MREDTA to 2034 FDA-approved drugs for treating non-small-cell lung cancer (NSCLC), all of which act on mutant EGFR<sup>T790M</sup> protein. The corresponding molecular docking results demonstrated the robustness of MREDTA.

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Publication Details

Journal
The FASEB Journal
Published
2024-10-07
DOI
https://doi.org/10.1096/fj.202401254r
Citations
6
Primary Topic
Computational Drug Discovery Methods
Type
article
Field-Weighted Citation Impact
2.17
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article

MREDTA : A BERT and transformer‐based molecular representation encoder for predicting drug‐target binding affinity

Juanjuan Huang, Yabo Fang, Jiwei Jia, Guoqing Wang et al.
6 citations
The FASEB Journal
Computational Drug Discovery Methods
2.17
article

MREDTA : A BERT and transformer‐based molecular representation encoder for predicting drug‐target binding affinity

Juanjuan Huang, Yabo Fang, Jiwei Jia, Guoqing Wang, Xu Sun, Yixuan Jin, Jiageng Wu
article en
6 citations

Abstract

Drug-target binding affinity (DTA) prediction is vital for drug repositioning. The accuracy and generalizability of DTA models remain a major challenge. Here, we develop a model composed of BERT-Trans Block, Multi-Trans Block, and DTI Learning modules, referred to as Molecular Representation Encoder-based DTA prediction (MREDTA). MREDTA has three advantages: (1) extraction of both local and global molecular features simultaneously through skip connections; (2) improved sensitivity to molecular structures through the Multi-Trans Block; (3) enhanced generalizability through the introduction of BERT. Compared with 12 advanced models, benchmark testing of KIBA and Davis datasets demonstrated optimal performance of MREDTA. In case study, we applied MREDTA to 2034 FDA-approved drugs for treating non-small-cell lung cancer (NSCLC), all of which act on mutant EGFR<sup>T790M</sup> protein. The corresponding molecular docking results demonstrated the robustness of MREDTA.

The FASEB JournalVol. 38(19)
Jilin University (CN)
Good health and well-being
Openalex Percentile: Top 11%
Computational Drug Discovery Methods
2.17
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<scp>MREDTA</scp> : A <scp>BERT</scp> and transformer‐based molecular representation encoder for predicting drug‐target binding affinity — Juanjuan Huang, Yabo Fang, et al. · The FASEB Journal (2024) | TGRS Research Map | TGRS