Environmental Science & Technology · 2018 · 372 citations · 44 references
Life SciencesMicrobiologyAir PollutionAntimicrobial ResistanceEnvironmental MicrobiologyAir MicrobiologyAntibiotic ResistanceAntibiotic Resistance GeneticsAntibiotic Resistance MechanismsParticulate MatterResistance GenesAirborne Microbial ResistanceAirborne Particulate ExposureAmbient Particulate MatterAntibiotic Resistance GenesAntibiotic Resistance In The EnvironmentParticulate Matter PollutionPm2.5Quinolone Resistance Genes
samples in Xi'an, China as an example were also studied. Geographically, the ARGs were detected to vary by nearly 100-fold in their abundances, for example, from 0.07 (Bandung, Indonesia) to 5.6 (San Francisco, USA). The β-lactam resistance gene blaTEM was found to be most abundant, seconded by quinolone resistance gene qepA; and their corresponding relative abundances have increased by 178% and 26%, respectively, from 2004 to 2014 in Xi'an. Independent of cities, gene network analysis indicates that airborne ARGs were differentially contributed by bacterial taxa. Results here reveal that urban air is being polluted by ARGs, and different cities are challenged with varying health risks associated with airborne ARG exposure. This work highlights the threat of urban airborne transmission of ARGs and the need of redefining our current air quality standards in terms with public health.
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Patrick D. Schloss, Sarah L. Westcott, Thomas Ryabin et al. · Applied and Environmental Microbiology · 2009 · 21.8K citations · Full text
Harry Sokol, Bénédicte Pigneur, Laurie Watterlot et al. · Proceedings of the National Academy of Sciences · 2008 · 4.3K citations · Full text