ADME‐DTI: Augmented Deep Meta Ensemble for Drug–Target Interaction Prediction

, concordance index, and mean squared error. Specifically, the model achieved mean squared error values of 0.186 (Davis), 0.118 (Kiba), 0.134 (DTC), 0.262 (Metz), 0.300 (ToxCast), and 0.791 (STITCH), all of which are publicly available benchmark datasets commonly used in drug-target interaction prediction tasks. The results highlight the model's effectiveness in reducing prediction errors and improving accuracy. Previous drug-target interaction research often relied on limited, non-diverse datasets, reducing generalizability. Few studies addressed drug-target interaction prediction as a regression task. Our novel deep learning metamodel integrates multiple models and representations, surpassing benchmarks and delivering greater prediction accuracy across varied datasets and evaluation metrics.

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Publication Details

Journal
Molecular Informatics
Published
2026-04-30
DOI
https://doi.org/10.1002/minf.70033
Primary Topic
Computational Drug Discovery Methods
Type
article
Field-Weighted Citation Impact
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article

ADME‐DTI: Augmented Deep Meta Ensemble for Drug–Target Interaction Prediction

Tariq Sha’ban, Mostafa Z. Ali, Talal Z. Ali, Ahmad M. Mustafa
Molecular Informatics
Computational Drug Discovery Methods
article

ADME‐DTI: Augmented Deep Meta Ensemble for Drug–Target Interaction Prediction

Tariq Sha’ban, Mostafa Z. Ali, Talal Z. Ali, Ahmad M. Mustafa
article en

Abstract

, concordance index, and mean squared error. Specifically, the model achieved mean squared error values of 0.186 (Davis), 0.118 (Kiba), 0.134 (DTC), 0.262 (Metz), 0.300 (ToxCast), and 0.791 (STITCH), all of which are publicly available benchmark datasets commonly used in drug-target interaction prediction tasks. The results highlight the model's effectiveness in reducing prediction errors and improving accuracy. Previous drug-target interaction research often relied on limited, non-diverse datasets, reducing generalizability. Few studies addressed drug-target interaction prediction as a regression task. Our novel deep learning metamodel integrates multiple models and representations, surpassing benchmarks and delivering greater prediction accuracy across varied datasets and evaluation metrics.

Molecular InformaticsVol. 45(5)
Jordan University of Science and Technology (JO), Wayne State University (US)
Openalex Percentile: Top 9%
Computational Drug Discovery Methods
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