FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2020693497> ?p ?o ?g. }

• W2020693497 endingPage "2136" @default.
• W2020693497 startingPage "2130" @default.
• W2020693497 abstract "The soils of the Antarctic dry valleys are exposed to extremely dry and cold conditions. Nevertheless, they contain small communities of micro-organisms that contribute to the biogeochemical transformations of the bioelements, albeit at slow rates. We have determined the dehydrogenase, β-glucosidase, acid and alkaline phosphatase and arylsulphatase activities and the rates of respiration (CO2 production) in laboratory assays of soils collected from a field experiment in an Antarctic dry valley. The objective of the field experiment was to test the responses of the soil microbial community to additions of C and N in simple (glucose and NH4Cl) and complex forms (glycine and lacustrine detritus from the adjacent lake comprising principally cyanobacterial necromass). The soil samples were taken 3 years after the experimental treatments had been applied. In unamended soil, all enzyme activities and respiration were detected indicating that the enzymatic capacity to mineralize organic C, P and S compounds existed in the soil, despite the very low organic matter content. Relative to the control (unamended soil), respiration was significantly increased by all the experimental additions of C and N except the smallest NH4Cl addition (1 mg N g−1 soil) and the smallest detritus addition (1.5 mg C g−1 soil and 0.13 mg N g−1 soil). The activities of all enzymes except dehydrogenase were increased by C and combined large C (10 mg C g−1 soil) and N additions, but either unchanged or diminished by addition of either N only or N (up to 10 mg N g−1 soil) with only small C (1 mg C g−1 soil) additions in the form of glucose and NH4Cl. This suggests that in the presence of a large amount of N, the C supply for enzyme biosynthesis was limited. When normalized with respect to soil respiration, only arylsulphatase per unit of respiration showed a significant increase with C and N additions as glucose and NH4Cl, consistent with S limitation when C and N limitations have been alleviated. Based on the positive responses of enzyme activity, detritus appeared to provide either conditions or resources which led to a larger biological response than a similar amount of C and more N added in the form of defined compounds (glucose, NH4Cl or glycine). Assessment of the soil microbial community by ester-linked fatty acid (ELFA) analysis provided no evidence of changes in the community structure as a result of the C and N supplementation treatments. Thus the respiration and enzyme activity responses to supplementation occurred in an apparently structurally stable or unresponsive microbial community." @default.
• W2020693497 created "2016-06-24" @default.
• W2020693497 creator A5004811895 @default.
• W2020693497 creator A5024004707 @default.
• W2020693497 creator A5031209885 @default.
• W2020693497 creator A5036520455 @default.
• W2020693497 creator A5042254956 @default.
• W2020693497 creator A5061845786 @default.
• W2020693497 creator A5066131954 @default.
• W2020693497 creator A5091096089 @default.
• W2020693497 creator A5091688589 @default.
• W2020693497 date "2008-09-01" @default.
• W2020693497 modified "2023-10-10" @default.
• W2020693497 title "Enzymatic activities and microbial communities in an Antarctic dry valley soil: Responses to C and N supplementation" @default.
• W2020693497 cites W1964150585 @default.
• W2020693497 cites W1967245918 @default.
• W2020693497 cites W1970134680 @default.
• W2020693497 cites W1971302369 @default.
• W2020693497 cites W1991525917 @default.
• W2020693497 cites W1995570321 @default.
• W2020693497 cites W1998015209 @default.
• W2020693497 cites W2006875178 @default.
• W2020693497 cites W2011404802 @default.
• W2020693497 cites W2016795939 @default.
• W2020693497 cites W2017997969 @default.
• W2020693497 cites W2024478839 @default.
• W2020693497 cites W2030775529 @default.
• W2020693497 cites W2032506986 @default.
• W2020693497 cites W2036548510 @default.
• W2020693497 cites W2037832843 @default.
• W2020693497 cites W2039175566 @default.
• W2020693497 cites W2055940982 @default.
• W2020693497 cites W2058724751 @default.
• W2020693497 cites W2069269466 @default.
• W2020693497 cites W2074684617 @default.
• W2020693497 cites W2076699389 @default.
• W2020693497 cites W2078666241 @default.
• W2020693497 cites W2079731165 @default.
• W2020693497 cites W2087338057 @default.
• W2020693497 cites W2088338221 @default.
• W2020693497 cites W2093108026 @default.
• W2020693497 cites W2095065964 @default.
• W2020693497 cites W2105891005 @default.
• W2020693497 cites W2110131310 @default.
• W2020693497 cites W2120127610 @default.
• W2020693497 cites W2121316598 @default.
• W2020693497 cites W2150231600 @default.
• W2020693497 cites W2155049182 @default.
• W2020693497 cites W2166109183 @default.
• W2020693497 cites W2174086427 @default.
• W2020693497 cites W2177425537 @default.
• W2020693497 cites W235807118 @default.
• W2020693497 doi "https://doi.org/10.1016/j.soilbio.2008.03.022" @default.
• W2020693497 hasPublicationYear "2008" @default.
• W2020693497 type Work @default.
• W2020693497 sameAs 2020693497 @default.
• W2020693497 citedByCount "71" @default.
• W2020693497 countsByYear W20206934972012 @default.
• W2020693497 countsByYear W20206934972013 @default.
• W2020693497 countsByYear W20206934972014 @default.
• W2020693497 countsByYear W20206934972015 @default.
• W2020693497 countsByYear W20206934972016 @default.
• W2020693497 countsByYear W20206934972017 @default.
• W2020693497 countsByYear W20206934972018 @default.
• W2020693497 countsByYear W20206934972019 @default.
• W2020693497 countsByYear W20206934972020 @default.
• W2020693497 countsByYear W20206934972021 @default.
• W2020693497 countsByYear W20206934972022 @default.
• W2020693497 countsByYear W20206934972023 @default.
• W2020693497 crossrefType "journal-article" @default.
• W2020693497 hasAuthorship W2020693497A5004811895 @default.
• W2020693497 hasAuthorship W2020693497A5024004707 @default.
• W2020693497 hasAuthorship W2020693497A5031209885 @default.
• W2020693497 hasAuthorship W2020693497A5036520455 @default.
• W2020693497 hasAuthorship W2020693497A5042254956 @default.
• W2020693497 hasAuthorship W2020693497A5061845786 @default.
• W2020693497 hasAuthorship W2020693497A5066131954 @default.
• W2020693497 hasAuthorship W2020693497A5091096089 @default.
• W2020693497 hasAuthorship W2020693497A5091688589 @default.
• W2020693497 hasConcept C107872376 @default.
• W2020693497 hasConcept C111696902 @default.
• W2020693497 hasConcept C140793950 @default.
• W2020693497 hasConcept C154414509 @default.
• W2020693497 hasConcept C159750122 @default.
• W2020693497 hasConcept C178790620 @default.
• W2020693497 hasConcept C181199279 @default.
• W2020693497 hasConcept C182124840 @default.
• W2020693497 hasConcept C185592680 @default.
• W2020693497 hasConcept C18903297 @default.
• W2020693497 hasConcept C2776317432 @default.
• W2020693497 hasConcept C48743137 @default.
• W2020693497 hasConcept C55493867 @default.
• W2020693497 hasConcept C63376196 @default.
• W2020693497 hasConcept C6557445 @default.
• W2020693497 hasConcept C71915725 @default.
• W2020693497 hasConcept C86803240 @default.
• W2020693497 hasConceptScore W2020693497C107872376 @default.
• W2020693497 hasConceptScore W2020693497C111696902 @default.

• next