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Application of Molecular Methods for Carbapenemase Detection

This study has evaluated the correlation between different carbapenemases detection methods on carbapenem non-susceptible Klebsiella pneumoniae strains from Northern and Eastern Europe; 31 institutions in 9 countries participated in the research project, namely Finland, Estonia, Latvia, Lithuania, R...

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Autores principales: Bilozor, Anastasia, Balode, Arta, Chakhunashvili, Giorgi, Chumachenko, Tetyana, Egorova, Svetlana, Ivanova, Marina, Kaftyreva, Liidia, Kõljalg, Siiri, Kõressaar, Triinu, Lysenko, Olga, Miciuleviciene, Jolanta, Mändar, Reet, Lis, Danuta O., Wesolowska, Monika Pomorska, Ratnik, Kaspar, Remm, Maido, Rudzko, Jelena, Rööp, Tiiu, Saule, Mara, Sepp, Epp, Shyshporonok, Julia, Titov, Leonid, Tsereteli, David, Naaber, Paul
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Frontiers Media S.A. 2019
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6687770/
https://www.ncbi.nlm.nih.gov/pubmed/31428068
http://dx.doi.org/10.3389/fmicb.2019.01755
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author Bilozor, Anastasia
Balode, Arta
Chakhunashvili, Giorgi
Chumachenko, Tetyana
Egorova, Svetlana
Ivanova, Marina
Kaftyreva, Liidia
Kõljalg, Siiri
Kõressaar, Triinu
Lysenko, Olga
Miciuleviciene, Jolanta
Mändar, Reet
Lis, Danuta O.
Wesolowska, Monika Pomorska
Ratnik, Kaspar
Remm, Maido
Rudzko, Jelena
Rööp, Tiiu
Saule, Mara
Sepp, Epp
Shyshporonok, Julia
Titov, Leonid
Tsereteli, David
Naaber, Paul
author_facet Bilozor, Anastasia
Balode, Arta
Chakhunashvili, Giorgi
Chumachenko, Tetyana
Egorova, Svetlana
Ivanova, Marina
Kaftyreva, Liidia
Kõljalg, Siiri
Kõressaar, Triinu
Lysenko, Olga
Miciuleviciene, Jolanta
Mändar, Reet
Lis, Danuta O.
Wesolowska, Monika Pomorska
Ratnik, Kaspar
Remm, Maido
Rudzko, Jelena
Rööp, Tiiu
Saule, Mara
Sepp, Epp
Shyshporonok, Julia
Titov, Leonid
Tsereteli, David
Naaber, Paul
author_sort Bilozor, Anastasia
collection PubMed
description This study has evaluated the correlation between different carbapenemases detection methods on carbapenem non-susceptible Klebsiella pneumoniae strains from Northern and Eastern Europe; 31 institutions in 9 countries participated in the research project, namely Finland, Estonia, Latvia, Lithuania, Russia, St. Petersburg, Poland, Belarus, Ukraine, and Georgia. During the research program, a total of 5,001 clinical K. pneumoniae isolates were screened for any carbapenem non-susceptibility by the disk diffusion method, Vitek 2 or Phoenix system following the EUCAST guideline on detection of resistance mechanisms, version 1.0. Strains isolated from outpatients and hospitalized patients from April 2015 to June 2015 were included. All types of samples (blood, pus, urine, etc.) excluding fecal screening or fecal colonization samples have been represented. In total, 171 carbapenemase screening-positive K. pneumoniae isolates (3.42%) were found and characterized. Several methods were used for detection of carbapenemases production, including Luminex assay (PCR and hybridization), whole genome sequencing, MALDI-TOF based Imipenem degradation assay, and immunochromatography testing. Minimal inhibitory concentration determination for Meropenem by agar-based gradient method was also used. Finally, 83 K. pneumoniae strains were carbapenemase negative by all confirmation methods (49.4% of all screening-positive ones), 74 – positive by three methods (44.0%), 8 – positive by two methods (4.8%) and 3 – positive by only one method (1.8%). The sensitivity of the tests was 96.3% for Whole genome sequencing and MALDI-TOF assay (both three undetected cases), and 95.1% for Luminex-Carba (4 undetected cases). The most commonly detected carbapenemases were NDM (n = 54) and OXA-48 (n = 26), followed by KPC-2, VIM-5, and OXA-72 (one case of each). Our results showed that different types of carbapenemases can be detected in the countries involved in the project. The sensitivity of our methods for carbapenemase detection (including screening as a first step and further confirmation tests) was >95%, but we would recommend using different methods to increase the sensitivity of detection and make it more precise.
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spelling pubmed-66877702019-08-19 Application of Molecular Methods for Carbapenemase Detection Bilozor, Anastasia Balode, Arta Chakhunashvili, Giorgi Chumachenko, Tetyana Egorova, Svetlana Ivanova, Marina Kaftyreva, Liidia Kõljalg, Siiri Kõressaar, Triinu Lysenko, Olga Miciuleviciene, Jolanta Mändar, Reet Lis, Danuta O. Wesolowska, Monika Pomorska Ratnik, Kaspar Remm, Maido Rudzko, Jelena Rööp, Tiiu Saule, Mara Sepp, Epp Shyshporonok, Julia Titov, Leonid Tsereteli, David Naaber, Paul Front Microbiol Microbiology This study has evaluated the correlation between different carbapenemases detection methods on carbapenem non-susceptible Klebsiella pneumoniae strains from Northern and Eastern Europe; 31 institutions in 9 countries participated in the research project, namely Finland, Estonia, Latvia, Lithuania, Russia, St. Petersburg, Poland, Belarus, Ukraine, and Georgia. During the research program, a total of 5,001 clinical K. pneumoniae isolates were screened for any carbapenem non-susceptibility by the disk diffusion method, Vitek 2 or Phoenix system following the EUCAST guideline on detection of resistance mechanisms, version 1.0. Strains isolated from outpatients and hospitalized patients from April 2015 to June 2015 were included. All types of samples (blood, pus, urine, etc.) excluding fecal screening or fecal colonization samples have been represented. In total, 171 carbapenemase screening-positive K. pneumoniae isolates (3.42%) were found and characterized. Several methods were used for detection of carbapenemases production, including Luminex assay (PCR and hybridization), whole genome sequencing, MALDI-TOF based Imipenem degradation assay, and immunochromatography testing. Minimal inhibitory concentration determination for Meropenem by agar-based gradient method was also used. Finally, 83 K. pneumoniae strains were carbapenemase negative by all confirmation methods (49.4% of all screening-positive ones), 74 – positive by three methods (44.0%), 8 – positive by two methods (4.8%) and 3 – positive by only one method (1.8%). The sensitivity of the tests was 96.3% for Whole genome sequencing and MALDI-TOF assay (both three undetected cases), and 95.1% for Luminex-Carba (4 undetected cases). The most commonly detected carbapenemases were NDM (n = 54) and OXA-48 (n = 26), followed by KPC-2, VIM-5, and OXA-72 (one case of each). Our results showed that different types of carbapenemases can be detected in the countries involved in the project. The sensitivity of our methods for carbapenemase detection (including screening as a first step and further confirmation tests) was >95%, but we would recommend using different methods to increase the sensitivity of detection and make it more precise. Frontiers Media S.A. 2019-08-02 /pmc/articles/PMC6687770/ /pubmed/31428068 http://dx.doi.org/10.3389/fmicb.2019.01755 Text en Copyright © 2019 Bilozor, Balode, Chakhunashvili, Chumachenko, Egorova, Ivanova, Kaftyreva, Kõljalg, Kõressaar, Lysenko, Miciuleviciene, Mändar, Lis, Wesolowska, Ratnik, Remm, Rudzko, Rööp, Saule, Sepp, Shyshporonok, Titov, Tsereteli and Naaber. http://creativecommons.org/licenses/by/4.0/ This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
spellingShingle Microbiology
Bilozor, Anastasia
Balode, Arta
Chakhunashvili, Giorgi
Chumachenko, Tetyana
Egorova, Svetlana
Ivanova, Marina
Kaftyreva, Liidia
Kõljalg, Siiri
Kõressaar, Triinu
Lysenko, Olga
Miciuleviciene, Jolanta
Mändar, Reet
Lis, Danuta O.
Wesolowska, Monika Pomorska
Ratnik, Kaspar
Remm, Maido
Rudzko, Jelena
Rööp, Tiiu
Saule, Mara
Sepp, Epp
Shyshporonok, Julia
Titov, Leonid
Tsereteli, David
Naaber, Paul
Application of Molecular Methods for Carbapenemase Detection
title Application of Molecular Methods for Carbapenemase Detection
title_full Application of Molecular Methods for Carbapenemase Detection
title_fullStr Application of Molecular Methods for Carbapenemase Detection
title_full_unstemmed Application of Molecular Methods for Carbapenemase Detection
title_short Application of Molecular Methods for Carbapenemase Detection
title_sort application of molecular methods for carbapenemase detection
topic Microbiology
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6687770/
https://www.ncbi.nlm.nih.gov/pubmed/31428068
http://dx.doi.org/10.3389/fmicb.2019.01755
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