FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4301431056> ?p ?o ?g. }

• W4301431056 abstract "The microbiome of water springs is gaining increasing interest, especially in water intended for human consumption. However, the knowledge about large-scale patterns in water springs microbiome is still incomplete. The presence of bacteria in water sources used for human consumption is a major concern for health authorities; nonetheless, the standard microbiological quality checks are focused only on pathogenic species and total microbial load. Using 16S rRNA high throughput sequencing, we characterized the microbiome from 38 water springs in Trentino (Northern Italy) for 2 consecutive years in order to gain precious insights on the microbiome composition of these unexplored yet hardly exploited environments. The microbiological studies were integrated with standard measurements of physico-chemical parameters performed by the Provincial Office for Environmental Monitoring in order to highlight some of the dynamics influencing the microbial communities of these waters. We found that alpha diversity showed consistent patterns of variation overtime, and showed a strong positive correlation with the water nitrate concentration and negatively with fixed residue, electrical conductivity, and calcium concentration. Surprisingly, alpha diversity did not show any significant correlation with neither pH nor temperature. We found that despite their remarkable stability, different water springs display different coefficients of variation in alpha diversity, and that springs used for similar purposes showed similar microbiomes. Furthermore, the springs could be grouped according to the number of shared species into three major groups: low, mid, and high number of shared taxa, and those three groups of springs were consistent with the spring usage. Species belonging to the phyla Planctomycetes and Verrucomicrobia were prevalent and at relatively high abundance in springs classified as low number of shared species, whereas the phylum Lentisphaerae and the Candidate Phyla radiation were prevalent at higher abundance in the mineral and potable springs. The present study constitutes an example for standard water spring monitoring integrated with microbial community composition on a regional scale, and provides information which could be useful in the design and application of future water management policies in Trentino." @default.
• W4301431056 created "2022-10-05" @default.
• W4301431056 creator A5001220736 @default.
• W4301431056 creator A5005516322 @default.
• W4301431056 creator A5011647613 @default.
• W4301431056 creator A5027130762 @default.
• W4301431056 creator A5050487356 @default.
• W4301431056 creator A5062142402 @default.
• W4301431056 creator A5068576885 @default.
• W4301431056 date "2022-10-05" @default.
• W4301431056 modified "2023-10-17" @default.
• W4301431056 title "Microbiome characterization of alpine water springs for human consumption reveals site- and usage-specific microbial signatures" @default.
• W4301431056 cites W1982546148 @default.
• W4301431056 cites W1993995366 @default.
• W4301431056 cites W2009681012 @default.
• W4301431056 cites W2013335692 @default.
• W4301431056 cites W2024240235 @default.
• W4301431056 cites W2033900229 @default.
• W4301431056 cites W2034215661 @default.
• W4301431056 cites W2034285706 @default.
• W4301431056 cites W2049422309 @default.
• W4301431056 cites W2055615060 @default.
• W4301431056 cites W2072431552 @default.
• W4301431056 cites W2074057243 @default.
• W4301431056 cites W2084162715 @default.
• W4301431056 cites W2086454132 @default.
• W4301431056 cites W2090984048 @default.
• W4301431056 cites W2098973410 @default.
• W4301431056 cites W2111562713 @default.
• W4301431056 cites W2112648679 @default.
• W4301431056 cites W2155347783 @default.
• W4301431056 cites W2159517936 @default.
• W4301431056 cites W2166171121 @default.
• W4301431056 cites W2292044244 @default.
• W4301431056 cites W2333498587 @default.
• W4301431056 cites W2401404581 @default.
• W4301431056 cites W2443045449 @default.
• W4301431056 cites W2490370836 @default.
• W4301431056 cites W2547318137 @default.
• W4301431056 cites W2556922987 @default.
• W4301431056 cites W2616322335 @default.
• W4301431056 cites W2642576209 @default.
• W4301431056 cites W2758696711 @default.
• W4301431056 cites W2760254056 @default.
• W4301431056 cites W2761620088 @default.
• W4301431056 cites W2779770211 @default.
• W4301431056 cites W2791469697 @default.
• W4301431056 cites W2791722387 @default.
• W4301431056 cites W2806494097 @default.
• W4301431056 cites W2888861235 @default.
• W4301431056 cites W2897529595 @default.
• W4301431056 cites W2912588564 @default.
• W4301431056 cites W2914133341 @default.
• W4301431056 cites W2915690974 @default.
• W4301431056 cites W2916081464 @default.
• W4301431056 cites W2934622036 @default.
• W4301431056 cites W2941475101 @default.
• W4301431056 cites W2944256672 @default.
• W4301431056 cites W2945634911 @default.
• W4301431056 cites W2946200799 @default.
• W4301431056 cites W2949521138 @default.
• W4301431056 cites W2955095750 @default.
• W4301431056 cites W2963276645 @default.
• W4301431056 cites W2963287930 @default.
• W4301431056 cites W2976441961 @default.
• W4301431056 cites W2989753174 @default.
• W4301431056 cites W3007284420 @default.
• W4301431056 cites W3010120900 @default.
• W4301431056 cites W3014770335 @default.
• W4301431056 cites W3031891273 @default.
• W4301431056 cites W3035603850 @default.
• W4301431056 cites W3037393290 @default.
• W4301431056 cites W3042868212 @default.
• W4301431056 cites W3082549449 @default.
• W4301431056 cites W3097706436 @default.
• W4301431056 cites W3156297220 @default.
• W4301431056 cites W3163963070 @default.
• W4301431056 cites W3178309558 @default.
• W4301431056 cites W3205371513 @default.
• W4301431056 cites W3205863018 @default.
• W4301431056 cites W4200157787 @default.
• W4301431056 cites W4206244075 @default.
• W4301431056 cites W4220689593 @default.
• W4301431056 cites W4224209549 @default.
• W4301431056 cites W4255135089 @default.
• W4301431056 cites W4281640187 @default.
• W4301431056 cites W4283744050 @default.
• W4301431056 doi "https://doi.org/10.3389/fmicb.2022.946460" @default.
• W4301431056 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/36274724" @default.
• W4301431056 hasPublicationYear "2022" @default.
• W4301431056 type Work @default.
• W4301431056 citedByCount "5" @default.
• W4301431056 countsByYear W43014310562023 @default.
• W4301431056 crossrefType "journal-article" @default.
• W4301431056 hasAuthorship W4301431056A5001220736 @default.
• W4301431056 hasAuthorship W4301431056A5005516322 @default.
• W4301431056 hasAuthorship W4301431056A5011647613 @default.
• W4301431056 hasAuthorship W4301431056A5027130762 @default.
• W4301431056 hasAuthorship W4301431056A5050487356 @default.
• W4301431056 hasAuthorship W4301431056A5062142402 @default.

• next