hAMRonization: Enhancing antimicrobial resistance prediction using the PHA4GE AMR detection specification and tooling
Catarina Inês MendesiD, Emma GriffithsiD, Alexander Manuele, Daniel FornikaiD, Simon H. TauschiD, Thanh Le-VietiD, Jody Emile PhelaniD, Conor Joseph MeehaniD, Amogelang R. RaphenyaiD, Brian P. AlcockiD, Elizabeth J. CulpiD, Federico LorenzoiD, María Sol HaimiD, Adam A. WitneyiD, Allison BlackiD, Lee S. KatziD, Paul E. OluniyiiD, Idowu B. OlawoyeiD, Ruth TimmeiD, Hui‐min NeohiD, Su Datt LamiD, Tengku Zetty Maztura Tengku JamaluddiniD, Sheila NathaniD, Mia Yang AngiD, Sabrina Di GregorioiD, , Finlay MaguireiD
Abstract
The detection of antimicrobial resistance (AMR) markers directly from genomic or metagenomic data is becoming a standard clinical and public health procedure. This has resulted in the development of a number of different bioinformatic AMR prediction tools. Although many may implement similar principles, these tools differ significantly in their supported inputs, search algorithms, parameterisation, and underlying reference databases. Each of these tools generates a report of detected AMR genes or variants in a distinct, non-standard, format. This presents a huge barrier to the comparison of results and to the modularity of tools for AMR gene prediction within bioinformatic workflows. In collaboration with 17 public health laboratories across 10 countries, the Public Health Alliance for Genomic Epidemiology (PHA4GE) (https://pha4ge.org) data structures working group has developed and piloted a standardized output specification for the bioinformatic detection of AMR from microbial genomes. In this report, we discuss hAMRonization, a python package and command-line utility, which implements PHA4GEs AMR specification to combine the outputs of disparate antimicrobial resistance gene detection tools into a single unified format. hAMRonization can be easily extended and currently supports 18 different tools (both species-agnostic and species-specific) for the detection of genes and/or variants conferring AMR. The harmonized reports are available in tabular form, JSON format or through an interactive HTML file (e.g., https://maguire-lab.github.io/assets/interactive_report_demo.html) that can be opened within the browser for navigable data exploration. As of 2024-03-07 hAMRonization has been downloaded [~]12,500 times, incorporated into >9 public bioinformatic tools and workflows, and been internally adopted by several national and international public health groups. The hAMRonization tool and underlying specification are open-source and freely available through PyPI, conda and GitHub (https://github.com/pha4ge/hAMRonization).
02 /Specification & Classification
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