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Zitation: Krueger, Tanja und Jimenez Soto, Luisa F.: Supplementary files including new predictor and benchmarks - Part of the review process of "Exo-Tox: Identifying Exotoxins from secreted bacterial proteins". 8. Juli 2025. Open Data LMU. 10.5282/ubm/data.665

Supplementary files including new predictor and benchmarks - Part of the review process of "Exo-Tox: Identifying Exotoxins from secreted bacterial proteins"
Supplementary files including new predictor and benchmarks - Part of the review process of "Exo-Tox: Identifying Exotoxins from secreted bacterial proteins"

Background: Bacterial exotoxins are secreted proteins able to affect target cells, and associated with diseases. Their accurate identification can enhance drug discovery and ensure the safety of bacteria-based medical applications. How-

ever, current toxin predictors prioritize broad coverage by mixing toxins from multiple biological kingdoms and diverse control sets. This general approach has proven sub-optimal for identifying niche toxins, such as bacterial exotoxins.

Recent Protein Language Models offer an opportunity to improve toxin prediction by capturing global sequence context and biochemical properties from protein sequences.

Results: We introduce Exo-Tox, a specialized predictor trained exclusively on curated datasets of bacterial exotoxins and secreted non-toxic bacterial proteins,represented as embeddings by Protein Language Models. Compared to Basic Local Alignment Search Tool (BLAST)-based methods and generalized toxin predictors, Exo-Tox outperforms across multiple metrics, achieving an Matthews correlation coefficient > 0.9. Notably, Exo-Tox’s performance remains robust regardless of protein length or the presence of signal peptides. We analyze its limited transfer-ability to bacteriophage proteins and non-secreted proteins.

foldseek, bacterial toxins, exotoxins, embeddings, protein Language Models
Krueger, Tanja
Jimenez Soto, Luisa F.
2025

[thumbnail of All files related to the review process of our Exo-Tox paper to BioData Mining submission] Other (All files related to the review process of our Exo-Tox paper to BioData Mining submission)
Exo-Tox_review_process_data.zip - Andere

359MB
[thumbnail of README containing the description of the contents in the Exo-Tox_review_process_data.zip] Plain Text (README containing the description of the contents in the Exo-Tox_review_process_data.zip)
README_Exo-Tox_review_process_data.md - Zusätzliche Metadaten

6kB

DOI: 10.5282/ubm/data.665

Dieser Datensatz steht unter der Creative Commons Lizenz
CC BY-SA 4.0

Be­schrei­bung

Background: Bacterial exotoxins are secreted proteins able to affect target cells, and associated with diseases. Their accurate identification can enhance drug discovery and ensure the safety of bacteria-based medical applications. How- ever, current toxin predictors prioritize broad coverage by mixing toxins from multiple biological kingdoms and diverse control sets. This general approach has proven sub-optimal for identifying niche toxins, such as bacterial exotoxins. Recent Protein Language Models offer an opportunity to improve toxin prediction by capturing global sequence context and biochemical properties from protein sequences. Results: We introduce Exo-Tox, a specialized predictor trained exclusively on curated datasets of bacterial exotoxins and secreted non-toxic bacterial proteins,represented as embeddings by Protein Language Models. Compared to Basic Local Alignment Search Tool (BLAST)-based methods and generalized toxin predictors, Exo-Tox outperforms across multiple metrics, achieving an Matthews correlation coefficient > 0.9. Notably, Exo-Tox’s performance remains robust regardless of protein length or the presence of signal peptides. We analyze its limited transfer-ability to bacteriophage proteins and non-secreted proteins.

Stichwörter

foldseek, bacterial toxins, exotoxins, embeddings, protein Language Models

Quellenangaben

Krueger, Tanja and Durmaz, Damla A. and Jimenez Soto, Luisa F.: Exo-Tox: Identifying Exotoxins from secreted bacterial proteins. 2025. Open Data LMU. 10.5282/ubm/data.576

Dokumententyp:Sonstiges
Name der Kontakt­person:Jimenez-Soto, Luisa F
E-Mail der Kontaktperson:l.jimenez at lmu.de
Fächer:Mathematik, Informatik und Statistik
Biologie
Dewey Dezimal­klassi­fikation:500 Naturwissenschaften und Mathematik
500 Naturwissenschaften und Mathematik > 570 Biowissenschaften, Biologie
ID Code:665
Eingestellt von: Dr. Luisa F. Jimenez Soto
Eingestellt am:10. Jul. 2025 06:07
Letzte Änderungen:10. Jul. 2025 06:29

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