FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3041569112> ?p ?o ?g. }

• W3041569112 abstract "ABSTRACT Elevation has strong influence on microbial community composition, but its influence on aquatic microbial functional genes remains unclear. Here, we compared the functional gene structure of microbial communities in surface water between two low-elevation lakes (LELs, with elevation of ca. 530 meters) and two high-elevation lakes (HELs, with elevation of ca. 4,600 meters) by using a metagenomic approach of Geo Chip-based functional gene arrays. We found significant differences in composition but not in richness of the microbial functional genes between the HELs and the LELs. In the HELs, the microbial communities had higher functional capacities in stress responses than those in LELs, which include cold shock, oxygen limitation, osmotic stress, nitrogen limitation, phosphate limitation, glucose limitation, radiation stress, heat shock, protein stress, and sigma factors genes. We also observed higher metabolic potentials in the degradation of aromatic, chitin, cellulose and hemicellulose in HELs than in LELs. By performing network analyses, we found enhanced interactions and complexity among the co-occurring functional genes in the HELs than those in the LELs in terms of network size, links, connectivity, and clustering coefficients. Notably, more functional genes of stress response played module-hub roles in the network of HELs. Overall, we observed contrasting patterns of microbial metabolic potentials and functional gene interactions in different elevational freshwater lakes, and found that the microbial communities developed functional strategies to cope with the harsh conditions at the high elevational lakes. IMPORTANCE Elevational patterns of biodiversity have attracted scientific interest in the fields of microbial ecology and biogeography. The influence of elevation on aquatic microbial functional gene structure and their metabolic potentials remains unclear. We compared the functional gene structure of microbial communities in surface water between two low-elevation lakes and two high-elevation lakes with a more than 4,000-meter difference in elevation along a mountainside by using GeoChip 5.0, which covered in total 144,000 gene sequences from 393 functional gene families. We found apparent differences in functional gene structures in lakes between the two different elevations. We also found enhanced metabolic potentials and functional gene interactions for microbial stress response with increasing elevation in freshwater lakes. These results highlighted that limnetic microbial communities could develop functional strategies to cope with harsh conditions towards high elevations." @default.
• W3041569112 created "2020-07-16" @default.
• W3041569112 creator A5005476934 @default.
• W3041569112 creator A5026106714 @default.
• W3041569112 creator A5074241199 @default.
• W3041569112 creator A5087259399 @default.
• W3041569112 creator A5088290384 @default.
• W3041569112 date "2020-07-12" @default.
• W3041569112 modified "2023-10-16" @default.
• W3041569112 title "Enhanced metabolic potentials and functional gene interactions of microbial stress response towards high elevation in freshwater lakes" @default.
• W3041569112 cites W1601221684 @default.
• W3041569112 cites W1634380723 @default.
• W3041569112 cites W1848939257 @default.
• W3041569112 cites W1940088327 @default.
• W3041569112 cites W1966623514 @default.
• W3041569112 cites W1975690984 @default.
• W3041569112 cites W1975691160 @default.
• W3041569112 cites W1990123404 @default.
• W3041569112 cites W1999642868 @default.
• W3041569112 cites W2016904876 @default.
• W3041569112 cites W2017987256 @default.
• W3041569112 cites W2021960415 @default.
• W3041569112 cites W2022269454 @default.
• W3041569112 cites W2056451184 @default.
• W3041569112 cites W2067703482 @default.
• W3041569112 cites W2068045087 @default.
• W3041569112 cites W2088209062 @default.
• W3041569112 cites W2099328214 @default.
• W3041569112 cites W2105739918 @default.
• W3041569112 cites W2109804792 @default.
• W3041569112 cites W2111910474 @default.
• W3041569112 cites W2118001436 @default.
• W3041569112 cites W2119008763 @default.
• W3041569112 cites W2121738633 @default.
• W3041569112 cites W2125252390 @default.
• W3041569112 cites W2125910575 @default.
• W3041569112 cites W2128886415 @default.
• W3041569112 cites W2134027504 @default.
• W3041569112 cites W2134416738 @default.
• W3041569112 cites W2138186136 @default.
• W3041569112 cites W2140526090 @default.
• W3041569112 cites W2143465560 @default.
• W3041569112 cites W2145458268 @default.
• W3041569112 cites W2145654062 @default.
• W3041569112 cites W2148663653 @default.
• W3041569112 cites W2149343318 @default.
• W3041569112 cites W2151517903 @default.
• W3041569112 cites W2155935719 @default.
• W3041569112 cites W2159675211 @default.
• W3041569112 cites W2160762717 @default.
• W3041569112 cites W2163056825 @default.
• W3041569112 cites W2164744609 @default.
• W3041569112 cites W2167900622 @default.
• W3041569112 cites W2171684656 @default.
• W3041569112 cites W2236507608 @default.
• W3041569112 cites W2290914818 @default.
• W3041569112 cites W2413163533 @default.
• W3041569112 cites W2601515396 @default.
• W3041569112 cites W2606996015 @default.
• W3041569112 cites W2761054002 @default.
• W3041569112 cites W2770779998 @default.
• W3041569112 cites W2776818502 @default.
• W3041569112 cites W2794647037 @default.
• W3041569112 cites W2889392547 @default.
• W3041569112 cites W4232910357 @default.
• W3041569112 doi "https://doi.org/10.1101/2020.07.10.198234" @default.
• W3041569112 hasPublicationYear "2020" @default.
• W3041569112 type Work @default.
• W3041569112 sameAs 3041569112 @default.
• W3041569112 citedByCount "1" @default.
• W3041569112 countsByYear W30415691122021 @default.
• W3041569112 crossrefType "posted-content" @default.
• W3041569112 hasAuthorship W3041569112A5005476934 @default.
• W3041569112 hasAuthorship W3041569112A5026106714 @default.
• W3041569112 hasAuthorship W3041569112A5074241199 @default.
• W3041569112 hasAuthorship W3041569112A5087259399 @default.
• W3041569112 hasAuthorship W3041569112A5088290384 @default.
• W3041569112 hasBestOaLocation W30415691121 @default.
• W3041569112 hasConcept C104317684 @default.
• W3041569112 hasConcept C130217890 @default.
• W3041569112 hasConcept C15151743 @default.
• W3041569112 hasConcept C18903297 @default.
• W3041569112 hasConcept C2524010 @default.
• W3041569112 hasConcept C33923547 @default.
• W3041569112 hasConcept C37054046 @default.
• W3041569112 hasConcept C53565203 @default.
• W3041569112 hasConcept C54355233 @default.
• W3041569112 hasConcept C86803240 @default.
• W3041569112 hasConceptScore W3041569112C104317684 @default.
• W3041569112 hasConceptScore W3041569112C130217890 @default.
• W3041569112 hasConceptScore W3041569112C15151743 @default.
• W3041569112 hasConceptScore W3041569112C18903297 @default.
• W3041569112 hasConceptScore W3041569112C2524010 @default.
• W3041569112 hasConceptScore W3041569112C33923547 @default.
• W3041569112 hasConceptScore W3041569112C37054046 @default.
• W3041569112 hasConceptScore W3041569112C53565203 @default.
• W3041569112 hasConceptScore W3041569112C54355233 @default.
• W3041569112 hasConceptScore W3041569112C86803240 @default.
• W3041569112 hasLocation W30415691121 @default.
• W3041569112 hasOpenAccess W3041569112 @default.

• next