Metabolomics strategy for diagnosing urinary tract infections

Abstract Metabolomics has emerged as a mainstream approach for investigating complex metabolic phenotypes but has yet to be integrated into routine clinical diagnostics. Metabolomics-based diagnosis of urinary tract infections (UTIs) is a logical application of this technology since microbial waste...

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Published in:Nature Communications
Main Authors: Carly C. Y. Chan, Daniel B. Gregson, Spencer D. Wildman, Dominique G. Bihan, Ryan A. Groves, Raied Aburashed, Thomas Rydzak, Keir Pittman, Nicolas Van Bavel, Ian A. Lewis
Format: Article
Language:English
Published: Nature Portfolio 2025-03-01
Online Access:https://doi.org/10.1038/s41467-025-57765-y
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author Carly C. Y. Chan
Daniel B. Gregson
Spencer D. Wildman
Dominique G. Bihan
Ryan A. Groves
Raied Aburashed
Thomas Rydzak
Keir Pittman
Nicolas Van Bavel
Ian A. Lewis
author_facet Carly C. Y. Chan
Daniel B. Gregson
Spencer D. Wildman
Dominique G. Bihan
Ryan A. Groves
Raied Aburashed
Thomas Rydzak
Keir Pittman
Nicolas Van Bavel
Ian A. Lewis
author_sort Carly C. Y. Chan
collection DOAJ
container_title Nature Communications
description Abstract Metabolomics has emerged as a mainstream approach for investigating complex metabolic phenotypes but has yet to be integrated into routine clinical diagnostics. Metabolomics-based diagnosis of urinary tract infections (UTIs) is a logical application of this technology since microbial waste products are concentrated in the bladder and thus could be suitable markers of infection. We conducted an untargeted metabolomics screen of clinical specimens from patients with suspected UTIs and identified two metabolites, agmatine, and N6-methyladenine, that are predictive of culture-positive samples. We developed a 3.2-min LC-MS assay to quantify these metabolites and showed that agmatine and N6-methyladenine correctly identify UTIs caused by 13 Enterobacterales species and 3 non-Enterobacterales species, accounting for over 90% of infections (agmatine AUC > 0.95; N6-methyladenine AUC > 0.89). These markers were robust predictors across two blinded cohorts totaling 1629 patient samples. These findings demonstrate the potential utility of metabolomics in clinical diagnostics for rapidly detecting UTIs.
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spelling doaj-art-e25be8f8887e417ebcbcd6ab71954a762025-08-20T01:43:07ZengNature PortfolioNature Communications2041-17232025-03-0116111010.1038/s41467-025-57765-yMetabolomics strategy for diagnosing urinary tract infectionsCarly C. Y. Chan0Daniel B. Gregson1Spencer D. Wildman2Dominique G. Bihan3Ryan A. Groves4Raied Aburashed5Thomas Rydzak6Keir Pittman7Nicolas Van Bavel8Ian A. Lewis9Alberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryDepartment of Pathology and Laboratory Medicine, Cumming School of Medicine, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAlberta Centre for Advanced Diagnostics, Department of Biological Science, University of CalgaryAbstract Metabolomics has emerged as a mainstream approach for investigating complex metabolic phenotypes but has yet to be integrated into routine clinical diagnostics. Metabolomics-based diagnosis of urinary tract infections (UTIs) is a logical application of this technology since microbial waste products are concentrated in the bladder and thus could be suitable markers of infection. We conducted an untargeted metabolomics screen of clinical specimens from patients with suspected UTIs and identified two metabolites, agmatine, and N6-methyladenine, that are predictive of culture-positive samples. We developed a 3.2-min LC-MS assay to quantify these metabolites and showed that agmatine and N6-methyladenine correctly identify UTIs caused by 13 Enterobacterales species and 3 non-Enterobacterales species, accounting for over 90% of infections (agmatine AUC > 0.95; N6-methyladenine AUC > 0.89). These markers were robust predictors across two blinded cohorts totaling 1629 patient samples. These findings demonstrate the potential utility of metabolomics in clinical diagnostics for rapidly detecting UTIs.https://doi.org/10.1038/s41467-025-57765-y
spellingShingle Carly C. Y. Chan
Daniel B. Gregson
Spencer D. Wildman
Dominique G. Bihan
Ryan A. Groves
Raied Aburashed
Thomas Rydzak
Keir Pittman
Nicolas Van Bavel
Ian A. Lewis
Metabolomics strategy for diagnosing urinary tract infections
title Metabolomics strategy for diagnosing urinary tract infections
title_full Metabolomics strategy for diagnosing urinary tract infections
title_fullStr Metabolomics strategy for diagnosing urinary tract infections
title_full_unstemmed Metabolomics strategy for diagnosing urinary tract infections
title_short Metabolomics strategy for diagnosing urinary tract infections
title_sort metabolomics strategy for diagnosing urinary tract infections
url https://doi.org/10.1038/s41467-025-57765-y
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