Monitoring antimicrobial resistance trends from global genomics data: amr.watch

Whole genome sequencing (WGS) is increasingly supporting routine pathogen surveillance at local and national levels, providing comparable data that can inform on the emergence and spread of antimicrobial resistance (AMR) globally. However, the potential for shared WGS data to guide interventions around AMR remains under-exploited, in part due to challenges in collating and transforming the growing volumes of data into timely insights. We present an interactive platform, amr.watch (https://amr.watch), that enables interrogation of AMR trends from public WGS data on an ongoing basis to support research and policy. The amr.watch platform incorporates, analyses and visualises high-quality WGS data from WHO-defined priority bacterial pathogens. Analytics are performed using community-standard methods with bespoke species-specific curation of AMR mechanisms. By 31 March 2025, the platform included data from 620,700 pathogen genomes with geotemporal information, with highly variable representation of different species and geographic regions. By integrating WGS data with sampling information, amr.watch enables users to assess geotemporal trends among genotypic variants (e.g., sequence types) and AMR mechanisms, with implications for interventions including antimicrobial prescribing and drug and vaccine development. While metadata inconsistencies demand future attention we focus on the collation of high quality genomic data allied with geotemporal distribution. In conclusion, amr.watch is an information platform for scientists and policy-makers delivering ongoing situational awareness of AMR trends from genomic data. As broad adoption of WGS continues, and crucially, metadata and associated sampling becomes increasingly representative, amr.watch is positioned to monitor both pathogen populations and our global efforts in genomic surveillance, guiding control strategies tailored to each pathogen's characteristics.

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Publication Details

Journal
PLOS Global Public Health
Published
2025-11-24
DOI
https://doi.org/10.1371/journal.pgph.0005256
Citations
2
Primary Topic
Antibiotic Use and Resistance
Type
article
Field-Weighted Citation Impact
2.52
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article

Monitoring antimicrobial resistance trends from global genomics data: amr.watch

David J. Connor, Silvia Argimón, Nabil-Fareed Alikhan, Edward J. Feil et al.
2 citations
PLOS Global Public Health
Antibiotic Use and Resistance
2.52
article

Monitoring antimicrobial resistance trends from global genomics data: amr.watch

David J. Connor, Silvia Argimón, Nabil-Fareed Alikhan, Edward J. Feil, Iruka N. Okeke, Khalil Abudahab, Philip Ashton, Pilar Donado-Godoy, Ravikumar Kadahalli Lingegowda, Matthew T. G. Holden, Andrew Molloy, Sonia Sia, Sophia David, Hajo Grundmann, David M. Aanensen, Corin Yeats, Natacha Couto, Julio Diaz Caballero, Anthony Underwood, Heather M. Shane
article en
2 citations

Abstract

Whole genome sequencing (WGS) is increasingly supporting routine pathogen surveillance at local and national levels, providing comparable data that can inform on the emergence and spread of antimicrobial resistance (AMR) globally. However, the potential for shared WGS data to guide interventions around AMR remains under-exploited, in part due to challenges in collating and transforming the growing volumes of data into timely insights. We present an interactive platform, amr.watch (https://amr.watch), that enables interrogation of AMR trends from public WGS data on an ongoing basis to support research and policy. The amr.watch platform incorporates, analyses and visualises high-quality WGS data from WHO-defined priority bacterial pathogens. Analytics are performed using community-standard methods with bespoke species-specific curation of AMR mechanisms. By 31 March 2025, the platform included data from 620,700 pathogen genomes with geotemporal information, with highly variable representation of different species and geographic regions. By integrating WGS data with sampling information, amr.watch enables users to assess geotemporal trends among genotypic variants (e.g., sequence types) and AMR mechanisms, with implications for interventions including antimicrobial prescribing and drug and vaccine development. While metadata inconsistencies demand future attention we focus on the collation of high quality genomic data allied with geotemporal distribution. In conclusion, amr.watch is an information platform for scientists and policy-makers delivering ongoing situational awareness of AMR trends from genomic data. As broad adoption of WGS continues, and crucially, metadata and associated sampling becomes increasingly representative, amr.watch is positioned to monitor both pathogen populations and our global efforts in genomic surveillance, guiding control strategies tailored to each pathogen's characteristics.

PLOS Global Public HealthVol. 5(11)
University of St Andrews (GB), University of Ibadan (NG), Research Institute for Tropical Medicine (PH), University Medical Center Freiburg (DE), University of Oxford (GB), Colombian Corporation for Agricultural Research - AGROSAVIA (CO), Genomics (United Kingdom) (GB), University of Bath (GB), Alice Lloyd College (US)
Openalex Percentile: Top 8%
Antibiotic Use and Resistance
2.52
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