Literature DB >> 26842706

Evaluation of Polymorphic Locus Sequence Typing for Candida glabrata Epidemiology.

Santosh Katiyar1, Eric Shiffrin2, Celeste Shelton2, Kelley Healey2, John-Paul Vermitsky2, Tom Edlind3.   

Abstract

The opportunistic yeast Candida glabratais increasingly refractory to antifungal treatment or prophylaxis and relatedly is increasingly implicated in health care-associated infections. To elucidate the epidemiology of these infections, strain typing is required. Sequence-based typing provides multiple advantages over length-based methods, such as pulsed-field gel electrophoresis (PFGE); however, conventional multilocus sequence typing (targeting 6 conserved loci) and whole-genome sequencing are impractical for routine use. A commercial sequence-based typing service for C. glabratathat targets polymorphic tandem repeat-containing loci has recently been developed. These CgMT-J and CgMT-M services were evaluated with 56 epidemiologically unrelated isolates, 4 to 7 fluconazole-susceptible or fluconazole-resistant isolates from each of 5 center A patients, 5 matched pairs of fluconazole-susceptible/resistant isolates from center B patients, and 7 isolates from a center C patient who responded to then failed caspofungin therapy. CgMT-J and CgMT-M generated congruent results, resolving isolates into 24 and 20 alleles, respectively. Isolates from all but one of the center A patients shared the same otherwise rare alleles, suggesting nosocomial transmission. Unexpectedly, Pdr1 sequencing showed that resistance arose independently in each patient. Similarly, most isolates from center B also clustered together; however, this may reflect a dominant clone since their alleles were shared by multiple unrelated isolates. Although distinguishable by their echinocandin susceptibilities, all isolates from the center C patient shared alleles, in agreement with the previously reported relatedness of these isolates based on PFGE. Finally, we show how phylogenetic clusters can be used to provide surrogate parents to analyze the mutational basis for antifungal resistance.
Copyright © 2016, American Society for Microbiology. All Rights Reserved.

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Year:  2016        PMID: 26842706      PMCID: PMC4809956          DOI: 10.1128/JCM.03106-15

Source DB:  PubMed          Journal:  J Clin Microbiol        ISSN: 0095-1137            Impact factor:   5.948


  41 in total

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3.  Microsatellite analysis and susceptibility to FCZ of Candida glabrata invasive isolates in Sfax Hospital, Tunisia.

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4.  Prevalent nosocomial clusters among causative agents for candidemia in Hamilton, Canada.

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5.  Multilocus microsatellite markers for molecular typing of Candida glabrata: application to analysis of genetic relationships between bloodstream and digestive system isolates.

Authors:  A Enache-Angoulvant; M Bourget; S Brisse; C Stockman-Pannier; L Diancourt; N François; D Rimek; C Fairhead; Daniel Poulain; C Hennequin
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6.  Candida glabrata strain relatedness by new microsatellite markers.

Authors:  S Abbes; H Sellami; A Sellami; I Hadrich; I Amouri; N Mahfoudh; S Neji; F Makni; H Makni; A Ayadi
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Review 7.  Nosocomial Candidiasis: Antifungal Stewardship and the Importance of Rapid Diagnosis.

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8.  Multilocus sequence typing of Candida glabrata reveals geographically enriched clades.

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Journal:  J Clin Microbiol       Date:  2003-12       Impact factor: 5.948

Review 9.  A review of molecular techniques to type Candida glabrata isolates.

Authors:  S Abbes; I Amouri; H Sellami; A Sellami; F Makni; A Ayadi
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10.  Global analysis of the evolution and mechanism of echinocandin resistance in Candida glabrata.

Authors:  Sheena D Singh-Babak; Tomas Babak; Stephanie Diezmann; Jessica A Hill; Jinglin Lucy Xie; Ying-Lien Chen; Susan M Poutanen; Robert P Rennie; Joseph Heitman; Leah E Cowen
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  10 in total

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Review 2.  Investigating Clinical Issues by Genotyping of Medically Important Fungi: Why and How?

Authors:  Alexandre Alanio; Marie Desnos-Ollivier; Dea Garcia-Hermoso; Stéphane Bretagne
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3.  Locus CauMT1 Provides a Higher-Resolution Alternative to Ribosomal Gene Sequencing for Initial Candida auris Genotyping.

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4.  Polymorphism of Polymeric Amino Acid Regions in Fungal Proteins and Correlation with Altered Echinocandin and Azole Susceptibility.

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5.  Disclosing azole resistance mechanisms in resistant Candida glabrata strains encoding wild-type or gain-of-function CgPDR1 alleles through comparative genomics and transcriptomics.

Authors:  Sara B Salazar; Maria Joana F Pinheiro; Danielle Sotti-Novais; Ana R Soares; Maria M Lopes; Teresa Ferreira; Vitória Rodrigues; Fábio Fernandes; Nuno P Mira
Journal:  G3 (Bethesda)       Date:  2022-07-06       Impact factor: 3.542

Review 6.  Microevolution of the pathogenic yeasts Candida albicans and Candida glabrata during antifungal therapy and host infection.

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7.  Low Level of Antifungal Resistance in Iranian Isolates of Candida glabrata Recovered from Blood Samples in a Multicenter Study from 2015 to 2018 and Potential Prognostic Values of Genotyping and Sequencing of PDR1.

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Journal:  Antimicrob Agents Chemother       Date:  2019-06-24       Impact factor: 5.191

8.  Antifungal drug susceptibility, molecular basis of resistance to echinocandins and molecular epidemiology of fluconazole resistance among clinical Candida glabrata isolates in Kuwait.

Authors:  Zahraa F Al-Baqsami; Suhail Ahmad; Ziauddin Khan
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9.  Phylogenetic Distribution of csp1 Types in Aspergillus fumigatus and Their Correlates to Azole Antifungal Drug Resistance.

Authors:  Oliver Bader
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10.  Comparative genomic analysis of clinical Candida glabrata isolates identifies multiple polymorphic loci that can improve existing multilocus sequence typing strategy.

Authors:  A Arastehfar; M Marcet-Houben; F Daneshnia; S J Taj-Aldeen; D Batra; S R Lockhart; E Shor; T Gabaldón; D S Perlin
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  10 in total

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