FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W3015987954> ?p ?o ?g. }

• W3015987954 endingPage "735336" @default.
• W3015987954 startingPage "735336" @default.
• W3015987954 abstract "Abstract Dissolved oxygen (DO) content is crucial for the development and health of aquatic animals. DO content is closely related to the antioxidant response of aquatic animals, while the interplay between DO content and the gut microbiota of aquatic animals is unclear. Thus, the objective of this study was to compare the changes in gut microbiota in Bostrichthys sinensis under normoxic (CT group) and hypoxic (Y group) conditions. Superoxide dismutase and catalase activities were similar in the CT and Y groups. The diversity and richness of the community decreased significantly in the Y group, concurrent with an altered composition in the gut microbiota. A dissimilarity test demonstrated that the structure of the gut microbiota was strictly separate between the CT and Y groups. The relative abundance of Gammaproteobacteria increased significantly while the relative abundance of Deltaproteobacteria decreased significantly in the Y group compared to the CT group. A significant increase in the relative abundance of Proteus was observed in the Y group, whereas the relative abundance of Desulfovibrio declined sharply. A network analysis revealed that average connectivity and sub-module numbers decreased in the Y group, suggesting that the complexity, efficiency, and robustness of the gut microbiota network in B. sinensis declined distinctly under the hypoxic condition. Clostridia was the main component serving as a module hub in the CT and Y group networks. Furthermore, most of the shared operational taxonomic units (OTUs) belonged to Clostridia. These results suggested that Clostridia both occupied an important position in the two networks of the B. sinensis gut microbiota, however the niche of Clostridia was notably altered based on its interactions with other species under the hypoxic condition. The interactions between Clostridia and other OTUs in the Y group network converted, indicating that a hypoxic condition could affect the function of Clostridia in the network. The homeostasis of the B. sinensis gut microbiota was disrupted under the hypoxic condition due to deterioration in the network structure resulting from a decrease in the number of module hubs and average connectivity. Microbial metabolism could be affected by the hypoxic conditions, and the abundant microbial functional pathways had advantage to the survival of B. sinensis. This study revealed the effects of DO on the composition of gut microbiota in B. sinensis and further illustrated the importance of interspecific interactions and species roles for evaluating the development and health of B. sinensis using an ecological network analysis of the gut microbiota." @default.
• W3015987954 created "2020-04-17" @default.
• W3015987954 creator A5016633230 @default.
• W3015987954 creator A5041282060 @default.
• W3015987954 creator A5083821775 @default.
• W3015987954 date "2020-08-01" @default.
• W3015987954 modified "2023-10-18" @default.
• W3015987954 title "Effects of normoxic and hypoxic conditions on the immune response and gut microbiota of Bostrichthys sinensis" @default.
• W3015987954 cites W1549530641 @default.
• W3015987954 cites W1568097952 @default.
• W3015987954 cites W1621474622 @default.
• W3015987954 cites W1967473882 @default.
• W3015987954 cites W1977262658 @default.
• W3015987954 cites W1977912706 @default.
• W3015987954 cites W1979254457 @default.
• W3015987954 cites W1981727621 @default.
• W3015987954 cites W1988263208 @default.
• W3015987954 cites W1988821718 @default.
• W3015987954 cites W1994486728 @default.
• W3015987954 cites W1999371063 @default.
• W3015987954 cites W2008525867 @default.
• W3015987954 cites W2012490955 @default.
• W3015987954 cites W2012606594 @default.
• W3015987954 cites W2017290612 @default.
• W3015987954 cites W2027688256 @default.
• W3015987954 cites W2030925163 @default.
• W3015987954 cites W2032105908 @default.
• W3015987954 cites W2050938999 @default.
• W3015987954 cites W2070304262 @default.
• W3015987954 cites W2072431584 @default.
• W3015987954 cites W2072970694 @default.
• W3015987954 cites W2076192043 @default.
• W3015987954 cites W2076757277 @default.
• W3015987954 cites W2089458547 @default.
• W3015987954 cites W2092657322 @default.
• W3015987954 cites W2112090702 @default.
• W3015987954 cites W2113145144 @default.
• W3015987954 cites W2114862636 @default.
• W3015987954 cites W2116067262 @default.
• W3015987954 cites W2116288207 @default.
• W3015987954 cites W2117595393 @default.
• W3015987954 cites W2117727476 @default.
• W3015987954 cites W2118880026 @default.
• W3015987954 cites W2119537442 @default.
• W3015987954 cites W2122292170 @default.
• W3015987954 cites W2126452774 @default.
• W3015987954 cites W2133856765 @default.
• W3015987954 cites W2134830426 @default.
• W3015987954 cites W2138124954 @default.
• W3015987954 cites W2140522302 @default.
• W3015987954 cites W2148663653 @default.
• W3015987954 cites W2151936673 @default.
• W3015987954 cites W2153272055 @default.
• W3015987954 cites W2163480486 @default.
• W3015987954 cites W2167062509 @default.
• W3015987954 cites W2170586414 @default.
• W3015987954 cites W2175518322 @default.
• W3015987954 cites W2360231252 @default.
• W3015987954 cites W2424784766 @default.
• W3015987954 cites W2506954773 @default.
• W3015987954 cites W2590917014 @default.
• W3015987954 cites W2619663459 @default.
• W3015987954 cites W2731252217 @default.
• W3015987954 cites W2782123055 @default.
• W3015987954 cites W2791416101 @default.
• W3015987954 cites W2906595832 @default.
• W3015987954 cites W2945512770 @default.
• W3015987954 cites W2952564192 @default.
• W3015987954 cites W2954187876 @default.
• W3015987954 cites W2977433364 @default.
• W3015987954 cites W3006438105 @default.
• W3015987954 cites W4211017114 @default.
• W3015987954 doi "https://doi.org/10.1016/j.aquaculture.2020.735336" @default.
• W3015987954 hasPublicationYear "2020" @default.
• W3015987954 type Work @default.
• W3015987954 sameAs 3015987954 @default.
• W3015987954 citedByCount "16" @default.
• W3015987954 countsByYear W30159879542020 @default.
• W3015987954 countsByYear W30159879542021 @default.
• W3015987954 countsByYear W30159879542022 @default.
• W3015987954 countsByYear W30159879542023 @default.
• W3015987954 crossrefType "journal-article" @default.
• W3015987954 hasAuthorship W3015987954A5016633230 @default.
• W3015987954 hasAuthorship W3015987954A5041282060 @default.
• W3015987954 hasAuthorship W3015987954A5083821775 @default.
• W3015987954 hasConcept C178790620 @default.
• W3015987954 hasConcept C185592680 @default.
• W3015987954 hasConcept C203014093 @default.
• W3015987954 hasConcept C539455810 @default.
• W3015987954 hasConcept C540031477 @default.
• W3015987954 hasConcept C7836513 @default.
• W3015987954 hasConcept C86803240 @default.
• W3015987954 hasConcept C8891405 @default.
• W3015987954 hasConcept C89423630 @default.
• W3015987954 hasConceptScore W3015987954C178790620 @default.
• W3015987954 hasConceptScore W3015987954C185592680 @default.
• W3015987954 hasConceptScore W3015987954C203014093 @default.
• W3015987954 hasConceptScore W3015987954C539455810 @default.

• next