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Can plastic pollution drive the emergence and dissemination of novel zoonotic diseases?
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This review critically examines whether contaminated environmental plastics could facilitate the evolution and transmission of novel zoonotic pathogens, noting that microplastic biofilms frequently harbor pathogenic microorganisms. As human, animal, and plastic interactions become more frequent alongside rising plastic volumes, the authors call for urgent research into plastic waste as a potential driver of zoonotic disease emergence.
As the volume of plastic in the environment increases, so too does human interactions with plastic pollution. Similarly, domestic, feral, and wild animals are increasingly interacting with plastic pollution, highlighting the potential for contamination of plastic wastes with animal faeces, urine, saliva, and blood. Substantial evidence indicates that once in the environment, plastics rapidly become colonised by microbial biofilm (the so-called ‘plastisphere), which often includes potentially harmful microbial pathogens (including pathogens that are zoonotic in nature). Climate change, increased urbanisation, and the intensification of agriculture, mean that the three-way interactions between humans, animals, and plastic pollution are becoming more frequent, which is significant as almost 60% of emerging human infectious diseases during the last century have been zoonotic. Here, we critically review the potential for contaminated environmental plastics to facilitate the evolution of novel pathogenic strains of microorganisms, and the subsequent role of plastic pollution in the cyclical dissemination of zoonotic pathogens. As the interactions between humans, animals, and plastic pollution continues to grow, and the volume of plastics entering the environment increases, there is clearly an urgent need to better understand the role of plastic waste in facilitating zoonotic pathogen evolution and dissemination, and the effect this can have on environmental and human health.
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Researchers reviewed how anthropogenic environmental changes — including plastic pollution — may accelerate bacterial pathogen evolution by altering mutation rates, horizontal gene transfer, and selection pressures, using the microplastic plastisphere as a case study for how pollution can drive microbial diversification with implications for human infection risk.
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This review examines the potential for microplastics to act as vectors for foodborne pathogens in the food chain, synthesizing current evidence on pathogen attachment to the plastisphere, the effects of microplastics on bacterial virulence and evolution, and the implications for simultaneous uptake of microplastics and pathogens in the human gut.
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