Literature DB >> 23398323

Detection of Coxiella burnetii DNA in the environment during and after a large Q fever epidemic in the Netherlands.

A de Bruin1, I Janse, M Koning, L de Heer, R Q J van der Plaats, J P G van Leuken, B J van Rotterdam.   

Abstract

AIM: To investigate the Coxiella burnetii DNA content in environmental samples that may contribute to the transmission of C. burnetii. METHODS AND
RESULTS: During a large Q fever outbreak in the Netherlands, surface swabs and aerosol samples were collected inside stables and around six Q fever-affected ruminant farms, which are located in municipalities varying in Q fever incidence. After the outbreak in 2010, aerosol samples were collected in the same geographical areas. The use of an optimized multiplex qPCR for the detection of C. burnetii DNA revealed that all samples obtained inside stables were positive. In addition, the C. burnetii DNA content in aerosol samples collected in stables is significantly higher than in aerosol samples collected around the farms. Finally, the C. burnetii DNA content in aerosol samples collected in the same geographical locations was lower in 2010 in comparison with 2009.
CONCLUSIONS: The reduction in C. burnetii DNA content in aerosol samples between 2009 and 2010 is in agreement with the reduction in Q fever incidence in the same geographical areas. SIGNIFICANCE AND IMPACT OF THE STUDY: The presence of C. burnetii DNA in environmental samples collected on and around ruminant farms supports the hypothesis that C. burnetii can be disseminated from ruminant farms to the surrounding areas.
© 2013 National Institute for Public Health © 2013 The Society for Applied Microbiology.

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Year:  2013        PMID: 23398323     DOI: 10.1111/jam.12163

Source DB:  PubMed          Journal:  J Appl Microbiol        ISSN: 1364-5072            Impact factor:   3.772


  14 in total

1.  Environment and Offspring Surveillance in Porcine Brucellosis.

Authors:  Agustín Rebollada-Merino; Marta Pérez-Sancho; Antonio Rodríguez-Bertos; Nerea García; Irene Martínez; Alejandro Navarro; Lucas Domínguez; Teresa García-Seco
Journal:  Front Vet Sci       Date:  2022-06-21

2.  A Q Fever Outbreak with a High Rate of Abortions at a Dairy Goat Farm: Coxiella burnetii Shedding, Environmental Contamination, and Viability.

Authors:  Raquel Álvarez-Alonso; Mikel Basterretxea; Jesús F Barandika; Ana Hurtado; Jasone Idiazabal; Isabel Jado; Xabier Beraza; Milagros Montes; Paloma Liendo; Ana L García-Pérez
Journal:  Appl Environ Microbiol       Date:  2018-10-01       Impact factor: 4.792

3.  Coxiella burnetii Antibody Prevalence and Risk Factors of Infection in the Human Population of Estonia.

Authors:  Kädi Neare; Marilin Janson; Pirje Hütt; Brian Lassen; Arvo Viltrop
Journal:  Microorganisms       Date:  2019-11-29

4.  Improved correlation of human Q fever incidence to modelled C. burnetii concentrations by means of an atmospheric dispersion model.

Authors:  Jeroen P G van Leuken; Jan van de Kassteele; Ferd J Sauter; Wim van der Hoek; Dick Heederik; Arie H Havelaar; Arno N Swart
Journal:  Int J Health Geogr       Date:  2015-04-01       Impact factor: 3.918

5.  A probably minor role for land-applied goat manure in the transmission of Coxiella burnetii to humans in the 2007-2010 Dutch Q fever outbreak.

Authors:  René van den Brom; Hendrik-Jan Roest; Arnout de Bruin; Daan Dercksen; Inge Santman-Berends; Wim van der Hoek; Annemiek Dinkla; Jelmer Vellema; Piet Vellema
Journal:  PLoS One       Date:  2015-03-27       Impact factor: 3.240

6.  Integrating interdisciplinary methodologies for One Health: goat farm re-implicated as the probable source of an urban Q fever outbreak, the Netherlands, 2009.

Authors:  Georgia A F Ladbury; Jeroen P G Van Leuken; Arno Swart; Piet Vellema; Barbara Schimmer; Ronald Ter Schegget; Wim Van der Hoek
Journal:  BMC Infect Dis       Date:  2015-09-03       Impact factor: 3.090

7.  High prevalence and two dominant host-specific genotypes of Coxiella burnetii in U.S. milk.

Authors:  Talima Pearson; Heidie M Hornstra; Remy Hilsabeck; Lauren T Gates; Sonora M Olivas; Dawn M Birdsell; Carina M Hall; Sabrina German; James M Cook; Meagan L Seymour; Rachael A Priestley; Ashley V Kondas; Christine L Clark Friedman; Erin P Price; James M Schupp; Cindy M Liu; Lance B Price; Robert F Massung; Gilbert J Kersh; Paul Keim
Journal:  BMC Microbiol       Date:  2014-02-17       Impact factor: 3.605

8.  Spatial analysis of positive and negative Q fever laboratory results for identifying high- and low-risk areas of infection in the Netherlands.

Authors:  Elsa J van den Berg; Cornelia C H Wielders; Peter M Schneeberger; Marjolijn C Wegdam-Blans; Wim van der Hoek
Journal:  Infect Ecol Epidemiol       Date:  2013-11-28

9.  Progression of Coxiella burnetii infection after implementing a two-year vaccination program in a naturally infected dairy cattle herd.

Authors:  Alvaro Piñero; Jesús F Barandika; Ana Hurtado; Ana L García-Pérez
Journal:  Acta Vet Scand       Date:  2014-07-22       Impact factor: 1.695

10.  Detection of Coxiella burnetii in Ambient Air after a Large Q Fever Outbreak.

Authors:  Myrna M T de Rooij; Floor Borlée; Lidwien A M Smit; Arnout de Bruin; Ingmar Janse; Dick J J Heederik; Inge M Wouters
Journal:  PLoS One       Date:  2016-03-18       Impact factor: 3.240

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