4.4 Article

The antibiotic resistance and pathogenicity of a multidrug-resistant Elizabethkingia anophelis isolate

Journal

MICROBIOLOGYOPEN
Volume 8, Issue 11, Pages -

Publisher

WILEY
DOI: 10.1002/mbo3.804

Keywords

antibiotic resistance mechanisms; comparative genomic analysis; Elizabethkingia anophelis; genome sequencing; pathogenicity mechanisms

Categories

Funding

  1. Fong Shu Fook Tong Foundation [14X30127]
  2. Fong Yun Wah Foundation [14X30127]
  3. Quanzhou high level talent innovation and Entrepreneurship Project [2017Z36]
  4. Natural Science Fund Project of Fujian Province [2015J01514]
  5. Youth Project of the Health and Family Planning Commission, Fujian [2015-1-57]
  6. School Project of Quanzhou Medical College [2013XJ1319]

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Elizabethkingia anophelis 12012-2 PRCM was isolated from a patient with multiple organ dysfunction syndrome and lower respiratory tract infection in China. Minimum inhibitory concentration (MIC) analysis demonstrated that it was resistant to 20 antibiotics including trimethoprim/sulfamethoxazole and ciprofloxacin, which were effective for the elimination of other Elizabethkingia infections. To investigate multidrug resistance and pathogenicity mechanisms, we analyzed genome features of 12012-2 PRCM and compared them to the other Elizabethkingia species. The draft genome size was 4.02 Mb with a GC content of 32%, comparable to that of other E. anophelis strains. Phylogenetic analysis showed that E. anophelis 12012-2 PRCM formed a sister group with E. anophelis 502, distinct from clades formed by other clinical and environmental E. anophelis isolates. E. anophelis 12012-2 PRCM contained multiple copies of beta-lactamase genes as well as genes predicted to function in antimicrobial efflux. It also contained 92 genes that were potentially involved in virulence, disease, and defense, and were associated with resistance and pathogenicity. Comparative genomic analysis showed high homology among three clinical and two environmental E. anophelis strains having a variety of similar antibiotic resistance and virulence factor genes, and similar genomic structure. Applications of this analysis will contribute to understanding the antibiotic resistance and pathogenic mechanisms of E. anophelis infections, which will assist in the management of infections as it increases in prevalence.

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