Literature DB >> 27797533

Influence of Soil Characteristics and Proximity to Antarctic Research Stations on Abundance of Antibiotic Resistance Genes in Soils.

Fang Wang1, Robert D Stedtfeld, Ok-Sun Kim2, Benli Chai, Luxi Yang, Tiffany M Stedtfeld, Soon Gyu Hong2, Dockyu Kim2, Hyoun Soo Lim3, Syed A Hashsham, James M Tiedje, Woo Jun Sul4.   

Abstract

Soil is an important environmental reservoir of antibiotic resistance genes (ARGs), which are increasingly recognized as environmental contaminants. Methods to assess the risks associated with the acquisition or transfer of resistance mechanisms are still underdeveloped. Quantification of background levels of antibiotic resistance genes and what alters those is a first step in understanding our environmental resistome. Toward this goal, 62 samples were collected over 3 years from soils near the 30-year old Gondwana Research Station and for 4 years before and during development of the new Jang Bogo Research Station, both at Terra Nova Bay in Antarctica. These sites reflect limited and more extensive human impact, respectively. A qPCR array with 384 primer sets targeting antibiotic resistance genes and mobile genetic elements (MGEs) was used to detect and quantify these genes. A total of 73 ARGs and MGEs encompassing eight major antibiotic resistance gene categories were detected, but most at very low levels. Antarctic soil appeared to be a common reservoir for seven ARGs since they were present in most samples (42%-88%). If the seven widespread genes were removed, there was a correlation between the relative abundance of MGEs and ARGs, more typical of contaminated sites. There was a relationship between ARG content and distance from both research stations, with a significant effect at the Jang Bogo Station especially when excluding the seven widespread genes; however, the relative abundance of ARGs did not increase over the 4 year period. Silt, clay, total organic carbon, and SiO2 were the top edaphic factors that correlated with ARG abundance. Overall, this study identifies that human activity and certain soil characteristics correlate with antibiotic resistance genes in these oligotrophic Antarctic soils and provides a baseline of ARGs and MGEs for future comparisons.

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Year:  2016        PMID: 27797533     DOI: 10.1021/acs.est.6b02863

Source DB:  PubMed          Journal:  Environ Sci Technol        ISSN: 0013-936X            Impact factor:   9.028


  9 in total

1.  TCDD influences reservoir of antibiotic resistance genes in murine gut microbiome.

Authors:  Robert D Stedtfeld; Tiffany M Stedtfeld; Kelly A Fader; Maggie R Williams; Prianca Bhaduri; John Quensen; Timothy R Zacharewski; James M Tiedje; Syed A Hashsham
Journal:  FEMS Microbiol Ecol       Date:  2017-05-01       Impact factor: 4.194

2.  Isothermal assay targeting class 1 integrase gene for environmental surveillance of antibiotic resistance markers.

Authors:  Robert D Stedtfeld; Tiffany M Stedtfeld; Hassen Waseem; Meridith Fitschen-Brown; Xueping Guo; Benli Chai; Maggie R Williams; Trevor Shook; Amanda Logan; Ally Graham; Jong-Chan Chae; Woo-Jun Sul; Jacob VanHouten; James R Cole; Gerben J Zylstra; James M Tiedje; Brad L Upham; Syed A Hashsham
Journal:  J Environ Manage       Date:  2017-04-29       Impact factor: 6.789

3.  Metagenomic analysis reveals the shared and distinct features of the soil resistome across tundra, temperate prairie, and tropical ecosystems.

Authors:  Xun Qian; Santosh Gunturu; Jiarong Guo; Benli Chai; James R Cole; Jie Gu; James M Tiedje
Journal:  Microbiome       Date:  2021-05-14       Impact factor: 14.650

4.  Tracking antibiotic resistance gene pollution from different sources using machine-learning classification.

Authors:  Li-Guan Li; Xiaole Yin; Tong Zhang
Journal:  Microbiome       Date:  2018-05-24       Impact factor: 14.650

5.  Primer set 2.0 for highly parallel qPCR array targeting antibiotic resistance genes and mobile genetic elements.

Authors:  Robert D Stedtfeld; Xueping Guo; Tiffany M Stedtfeld; Hongjie Sheng; Maggie R Williams; Kristin Hauschild; Santosh Gunturu; Leo Tift; Fang Wang; Adina Howe; Benli Chai; Daqiang Yin; James R Cole; James M Tiedje; Syed A Hashsham
Journal:  FEMS Microbiol Ecol       Date:  2018-09-01       Impact factor: 4.194

6.  Antibiotic resistance in European wastewater treatment plants mirrors the pattern of clinical antibiotic resistance prevalence.

Authors:  Katariina M M Pärnänen; Carlos Narciso-da-Rocha; David Kneis; Thomas U Berendonk; Damiano Cacace; Thi Thuy Do; Christian Elpers; Despo Fatta-Kassinos; Isabel Henriques; Thomas Jaeger; Antti Karkman; Jose Luis Martinez; Stella G Michael; Irene Michael-Kordatou; Kristin O'Sullivan; Sara Rodriguez-Mozaz; Thomas Schwartz; Hongjie Sheng; Henning Sørum; Robert D Stedtfeld; James M Tiedje; Saulo Varela Della Giustina; Fiona Walsh; Ivone Vaz-Moreira; Marko Virta; Célia M Manaia
Journal:  Sci Adv       Date:  2019-03-27       Impact factor: 14.136

Review 7.  Antimicrobial resistance in Antarctica: is it still a pristine environment?

Authors:  K Hwengwere; H Paramel Nair; K A Hughes; L S Peck; M S Clark; C A Walker
Journal:  Microbiome       Date:  2022-05-06       Impact factor: 16.837

Review 8.  Performance Efficiency of Conventional Treatment Plants and Constructed Wetlands towards Reduction of Antibiotic Resistance.

Authors:  Moushumi Hazra; Lisa M Durso
Journal:  Antibiotics (Basel)       Date:  2022-01-16

9.  Metaplasmidome-encoded functions of Siberian low-centered polygonal tundra soils.

Authors:  Adrian Gorecki; Stine Holm; Mikolaj Dziurzynski; Matthias Winkel; Sizhong Yang; Susanne Liebner; Dirk Wagner; Lukasz Dziewit; Fabian Horn
Journal:  ISME J       Date:  2021-05-19       Impact factor: 10.302

  9 in total

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