CoMPHI: a novel composite machine learning approach utilizing multiple feature representation to predict hosts of bacteriophages

Phage therapy has reemerged as a compelling alternative to antibiotics in treating bacterial infections, especially for superbugs that have developed antibiotic resistance. The challenge in the broader application of phage therapy is identifying host targets for the vast array of uncharacterized phages obtained through next-generation sequencing. We introduce a Composite Model for Phage Host Interaction (CoMPHI) that integrates alignment-based approaches with machine learning. The model generates multiple feature encodings from nucleotide and protein sequences of both phages and hosts. It incorporates alignment scores between phage-phage, phage-host, and host-host pairs, creating a composite prediction framework. During 5-fold cross-validation, CoMPHI achieved Area Under the ROC Curve (AUC-ROC) values of 94-96.7% and accuracies of 92.3-95.1% across taxonomic levels from species to phylum. Comparative analysis showed a 6-8% performance improvement when alignment scores were included. Ablation studies demonstrated that combining nucleotide and protein encodings, along with phage-host, host-host, and phage-phage alignment scores, significantly enhanced prediction accuracy. CoMPHI provides a robust and comprehensive framework for predicting phage-host interactions. By combining sequence features and alignment information, the model advances computational tools that can accelerate the application of phage therapy in modern medicine.

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Publication Details

Journal
Frontiers in Bioinformatics
Published
2025-10-16
DOI
https://doi.org/10.3389/fbinf.2025.1622931
Primary Topic
Bacteriophages and microbial interactions
Type
article
Field-Weighted Citation Impact
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article

CoMPHI: a novel composite machine learning approach utilizing multiple feature representation to predict hosts of bacteriophages

Shreyashi Bodaka, Narasaiah Kolliputi
Frontiers in Bioinformatics
Bacteriophages and microbial interactions
article

CoMPHI: a novel composite machine learning approach utilizing multiple feature representation to predict hosts of bacteriophages

Shreyashi Bodaka, Narasaiah Kolliputi
article en

Abstract

Phage therapy has reemerged as a compelling alternative to antibiotics in treating bacterial infections, especially for superbugs that have developed antibiotic resistance. The challenge in the broader application of phage therapy is identifying host targets for the vast array of uncharacterized phages obtained through next-generation sequencing. We introduce a Composite Model for Phage Host Interaction (CoMPHI) that integrates alignment-based approaches with machine learning. The model generates multiple feature encodings from nucleotide and protein sequences of both phages and hosts. It incorporates alignment scores between phage-phage, phage-host, and host-host pairs, creating a composite prediction framework. During 5-fold cross-validation, CoMPHI achieved Area Under the ROC Curve (AUC-ROC) values of 94-96.7% and accuracies of 92.3-95.1% across taxonomic levels from species to phylum. Comparative analysis showed a 6-8% performance improvement when alignment scores were included. Ablation studies demonstrated that combining nucleotide and protein encodings, along with phage-host, host-host, and phage-phage alignment scores, significantly enhanced prediction accuracy. CoMPHI provides a robust and comprehensive framework for predicting phage-host interactions. By combining sequence features and alignment information, the model advances computational tools that can accelerate the application of phage therapy in modern medicine.

Frontiers in BioinformaticsVol. 5
IBM (United States) (US), University of South Florida (US)
Openalex Percentile: Top 72%
Bacteriophages and microbial interactions
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