Cargando…

New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022

Background: New Delhi Metallo-β-lactamase (NDM)–producing Escherichia coli are highly resistant organisms that spread quickly. In the United States, organisms with blaNDM are rare and mostly associated with healthcare settings. However, in other countries, blaNDM can be relatively common and are fou...

Descripción completa

Detalles Bibliográficos
Autores principales: McNamara, Kiara, Habrun, Caroline, Wilson, W. Wyatt, Kollmann, Leslie, Stapleton, G. Sean, Stanton, Richard, Benedict, Katharine, Beaudoin, Amanda, Snippes, Paula, Anacker, Melissa, Nichols, Megin, Walters, Maroya, Mason, Jordan, Mueller, Nikki
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Cambridge University Press 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10594259/
http://dx.doi.org/10.1017/ash.2023.354
_version_ 1785124608665452544
author McNamara, Kiara
Habrun, Caroline
Wilson, W. Wyatt
Kollmann, Leslie
Stapleton, G. Sean
Stanton, Richard
Benedict, Katharine
Beaudoin, Amanda
Snippes, Paula
Anacker, Melissa
Nichols, Megin
Walters, Maroya
Mason, Jordan
Mueller, Nikki
author_facet McNamara, Kiara
Habrun, Caroline
Wilson, W. Wyatt
Kollmann, Leslie
Stapleton, G. Sean
Stanton, Richard
Benedict, Katharine
Beaudoin, Amanda
Snippes, Paula
Anacker, Melissa
Nichols, Megin
Walters, Maroya
Mason, Jordan
Mueller, Nikki
author_sort McNamara, Kiara
collection PubMed
description Background: New Delhi Metallo-β-lactamase (NDM)–producing Escherichia coli are highly resistant organisms that spread quickly. In the United States, organisms with blaNDM are rare and mostly associated with healthcare settings. However, in other countries, blaNDM can be relatively common and are found in community settings. State veterinary and public health partners detected NDM E. coli in a dog from Iran living at a Wisconsin animal rescue facility (ARF), where 40% of dogs had international origins. We investigated to determine spread among dog and human contacts and prevent further transmission. Methods: We screened dogs and humans at the ARF, a local veterinary clinic (clinic A), and ARF staff homes (homes A and B) for colonization with blaNDM. We reviewed veterinary records and conducted a case–control analysis to identify risk factors for blaNDM acquisition among dogs. We evaluated ARF infection control practices. Screening specimens that were positive for blaNDM were cultured. We conducted an analysis of short- and long-read whole-genome sequencing data to evaluate isolate relatedness. We compared NDM E. coli sequences from dogs to all NDM E. coli sequences from humans collected in Wisconsin and nearby states. Results: Screening identified blaNDM colonization in 27 (37%) of 73 ARF dogs and 4 (56%) of 7 dogs in home A, but not in ARF or staff in clinic A. Among ARF dogs with blaNDM, 20 (74%) 27 had international origins and 22 (81%) had ≥1 medical condition. Dogs sharing the same space (OR, 5.1; 95% CI, 1.8–14.7) were associated with blaNDM acquisition. We observed high animal density, soiled environments, and insufficient hand hygiene. ARF staff wore workwear and work shoes off site, including to home A. Sequencing identified 3 multilocus sequence types (STs) using the Achtman scheme among 27 isolates with blaNDM-5. Most isolates were ST361 (20 of 27, 74%) followed by ST167 (6 of 27, 22%) and ST1163 (1 of 27, 4%). Within-MLST cluster variability was <1–3 high-quality single-nucleotide variant differences, each harboring a ST-specific plasmid with blaNDM-5. No NDM-E. coli sequences from humans appeared related. Conclusions: Investigation of a single isolate led to identification of widespread NDM-E. coli transmission among dogs at an ARF. There were multiple NDM E. coli introductions to the ARF, likely by dogs of international origin. Poor hygiene contributed to transmission among ARF dogs and to dogs outside the ARF. Transmission of blaNDM-5 at the ARF and offsite spread to home A demonstrate the potential for unrecognized community sources to disseminate NDM E. coli in community settings. Strategies and lessons learned from interventions to prevent antibiotic resistance in human healthcare settings may inform and support prevention in animal care. Disclosures: None
format Online
Article
Text
id pubmed-10594259
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher Cambridge University Press
record_format MEDLINE/PubMed
spelling pubmed-105942592023-10-25 New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022 McNamara, Kiara Habrun, Caroline Wilson, W. Wyatt Kollmann, Leslie Stapleton, G. Sean Stanton, Richard Benedict, Katharine Beaudoin, Amanda Snippes, Paula Anacker, Melissa Nichols, Megin Walters, Maroya Mason, Jordan Mueller, Nikki Antimicrob Steward Healthc Epidemiol Outbreaks Background: New Delhi Metallo-β-lactamase (NDM)–producing Escherichia coli are highly resistant organisms that spread quickly. In the United States, organisms with blaNDM are rare and mostly associated with healthcare settings. However, in other countries, blaNDM can be relatively common and are found in community settings. State veterinary and public health partners detected NDM E. coli in a dog from Iran living at a Wisconsin animal rescue facility (ARF), where 40% of dogs had international origins. We investigated to determine spread among dog and human contacts and prevent further transmission. Methods: We screened dogs and humans at the ARF, a local veterinary clinic (clinic A), and ARF staff homes (homes A and B) for colonization with blaNDM. We reviewed veterinary records and conducted a case–control analysis to identify risk factors for blaNDM acquisition among dogs. We evaluated ARF infection control practices. Screening specimens that were positive for blaNDM were cultured. We conducted an analysis of short- and long-read whole-genome sequencing data to evaluate isolate relatedness. We compared NDM E. coli sequences from dogs to all NDM E. coli sequences from humans collected in Wisconsin and nearby states. Results: Screening identified blaNDM colonization in 27 (37%) of 73 ARF dogs and 4 (56%) of 7 dogs in home A, but not in ARF or staff in clinic A. Among ARF dogs with blaNDM, 20 (74%) 27 had international origins and 22 (81%) had ≥1 medical condition. Dogs sharing the same space (OR, 5.1; 95% CI, 1.8–14.7) were associated with blaNDM acquisition. We observed high animal density, soiled environments, and insufficient hand hygiene. ARF staff wore workwear and work shoes off site, including to home A. Sequencing identified 3 multilocus sequence types (STs) using the Achtman scheme among 27 isolates with blaNDM-5. Most isolates were ST361 (20 of 27, 74%) followed by ST167 (6 of 27, 22%) and ST1163 (1 of 27, 4%). Within-MLST cluster variability was <1–3 high-quality single-nucleotide variant differences, each harboring a ST-specific plasmid with blaNDM-5. No NDM-E. coli sequences from humans appeared related. Conclusions: Investigation of a single isolate led to identification of widespread NDM-E. coli transmission among dogs at an ARF. There were multiple NDM E. coli introductions to the ARF, likely by dogs of international origin. Poor hygiene contributed to transmission among ARF dogs and to dogs outside the ARF. Transmission of blaNDM-5 at the ARF and offsite spread to home A demonstrate the potential for unrecognized community sources to disseminate NDM E. coli in community settings. Strategies and lessons learned from interventions to prevent antibiotic resistance in human healthcare settings may inform and support prevention in animal care. Disclosures: None Cambridge University Press 2023-09-29 /pmc/articles/PMC10594259/ http://dx.doi.org/10.1017/ash.2023.354 Text en © The Society for Healthcare Epidemiology of America 2023 https://creativecommons.org/licenses/by/4.0/This is an Open Access article, distributed under the terms of the Creative Commons Attribution licence (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted re-use, distribution, and reproduction in any medium, provided the original work is properly cited.
spellingShingle Outbreaks
McNamara, Kiara
Habrun, Caroline
Wilson, W. Wyatt
Kollmann, Leslie
Stapleton, G. Sean
Stanton, Richard
Benedict, Katharine
Beaudoin, Amanda
Snippes, Paula
Anacker, Melissa
Nichols, Megin
Walters, Maroya
Mason, Jordan
Mueller, Nikki
New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022
title New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022
title_full New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022
title_fullStr New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022
title_full_unstemmed New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022
title_short New Delhi metallo-β-lactamase–producing Escherichia coli among dogs at an animal rescue facility—Wisconsin, 2022
title_sort new delhi metallo-β-lactamase–producing escherichia coli among dogs at an animal rescue facility—wisconsin, 2022
topic Outbreaks
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10594259/
http://dx.doi.org/10.1017/ash.2023.354
work_keys_str_mv AT mcnamarakiara newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT habruncaroline newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT wilsonwwyatt newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT kollmannleslie newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT stapletongsean newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT stantonrichard newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT benedictkatharine newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT beaudoinamanda newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT snippespaula newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT anackermelissa newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT nicholsmegin newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT waltersmaroya newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT masonjordan newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022
AT muellernikki newdelhimetalloblactamaseproducingescherichiacoliamongdogsatananimalrescuefacilitywisconsin2022