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Air monitoring by nanopore sequencing

2023 Score: 50 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Tim Reska, Sofya Pozdniakova, Sílvia Borràs, Michael Schloter, Michael Schloter, Lídia Cañas, Michael Schloter, Albert Perlas Puente, Albert Perlas Puente, Xavier Rodó, Yuanyuan Wang, Barbro Winkler, Barbro Winkler, Michael Schloter, Jörg‐Peter Schnitzler, Lara Urban

Summary

This study demonstrated that nanopore sequencing-based metagenomics can robustly characterize the air microbiome, achieving species-level identification from low amounts of fragmented airborne DNA. Applied to urban Barcelona, the approach revealed stable location-specific microbial signatures, providing a fast and portable tool for comprehensive air quality monitoring relevant to tracking airborne biological and particulate pollutants.

Abstract While the air microbiome and its diversity are essential for human health and ecosystem resilience, comprehensive air microbial diversity monitoring has remained rare, so that little is known about the air microbiome’s composition, distribution, or functionality. Here we show that nanopore sequencing-based metagenomics can robustly assess the air microbiome in combination with active air sampling through liquid impingement and tailored computational analysis. We provide fast and portable laboratory and computational approaches for air microbiome profiling, which we leverage to robustly assess the taxonomic composition of the core air microbiome of a controlled greenhouse environment and of a natural outdoor environment. We show that long-read sequencing can resolve species-level annotations and specific ecosystem functions through de novo metagenomic assemblies despite the low amount of fragmented DNA used as an input for nanopore sequencing. We then apply our pipeline to assess the diversity and variability of an urban air microbiome, using Barcelona, Spain, as an example; this randomized experiment gives first insights into the presence of highly stable location-specific air microbiomes within the city’s boundaries, and showcases the robust microbial assessments that can be achieved through automatable, fast, and portable nanopore sequencing technology.

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