FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2167311959> ?p ?o ?g. }

• W2167311959 endingPage "2192" @default.
• W2167311959 startingPage "2181" @default.
• W2167311959 abstract "Abstract. The formation of nitrate (nitrification) in soils is an important process that influences N availability for plant uptake and potential N losses as well. Gross nitrification is an effective measure by which to test mechanistic ecosystem models for predictability because gross rates can widely differ between sites, even if net production is similar between these sites. A field experiment was designed to (i) determine gross nitrification rates in response to fertilisation and (ii) to verify the idea that seasonal variations of gross rates in soils can be readily predicted by soil moisture and soil temperature. Gross nitrification rates were measured by a Barometric Process Separation (BaPS). The BaPS measurements were validated with the commonly used 15N pool dilution technique measurements at six times. In general, the rates determined from both measurement approaches were in the same order of magnitude and showed a good correlation. The effects of 100 years of fertilisation (mineral fertiliser, manure and control) on gross nitrification rates were investigated. During 2004 soil samples from the long-term static fertilisation experiment at Bad Lauchstädt were sampled weekly and were measured in the laboratory under field conditions and subsequently under standardised conditions (16°C soil temperature and −30 kPa matrix potential) with the BaPS system. Gross nitrification rates determined under standardised conditions did not show any seasonal trend but did, however, reveal a high temporal variability. Gross nitrification rates determined by the BaPS-method under field conditions showed also a high temporal variability and ranged from 5 to 77 μg N h−1 kg−1 dry mass, 2 to 74 μg N h−1 kg−1 dry mass and 0 to 49 μg N h−1 kg−1 dry mass with respect to manure, mineral fertiliser, and control. The annual average was 0.34, 0.27 and 0.19 g N a−1 kg−1 dry mass for the manure site, mineral fertiliser site and control site, respectively. On all sites gross nitrification revealed a strong seasonal dynamic. Three different models were applied for reproducing the measured results. Test models could explain 75% to 78% of variability at the manure site, 66% to 77% of variability at the mineral fertiliser site, and 39% to 63% of variability at the control site. The model parameterisation shows that the temperature sensitivity of gross nitrification differs between the three neighbouring sites. Hence, a temperature response function in an ecosystem model has to consider the site specificity in order to adequately predict the effects of future climate change on the soil N cycle." @default.
• W2167311959 created "2016-06-24" @default.
• W2167311959 creator A5049825176 @default.
• W2167311959 creator A5064966921 @default.
• W2167311959 date "2009-10-14" @default.
• W2167311959 modified "2023-10-10" @default.
• W2167311959 title "Measuring and modelling seasonal variation of gross nitrification rates in response to long-term fertilisation" @default.
• W2167311959 cites W1544354930 @default.
• W2167311959 cites W156076062 @default.
• W2167311959 cites W1964995142 @default.
• W2167311959 cites W1970281688 @default.
• W2167311959 cites W1979433069 @default.
• W2167311959 cites W1979598987 @default.
• W2167311959 cites W1979954860 @default.
• W2167311959 cites W1981150038 @default.
• W2167311959 cites W1985334232 @default.
• W2167311959 cites W1985879501 @default.
• W2167311959 cites W1985929477 @default.
• W2167311959 cites W1986528451 @default.
• W2167311959 cites W1988878974 @default.
• W2167311959 cites W1990535215 @default.
• W2167311959 cites W1997018945 @default.
• W2167311959 cites W2004366280 @default.
• W2167311959 cites W2008494725 @default.
• W2167311959 cites W2010321968 @default.
• W2167311959 cites W2012615812 @default.
• W2167311959 cites W2015519867 @default.
• W2167311959 cites W2026292861 @default.
• W2167311959 cites W2032876392 @default.
• W2167311959 cites W2034876680 @default.
• W2167311959 cites W2042901351 @default.
• W2167311959 cites W2042992907 @default.
• W2167311959 cites W2053119955 @default.
• W2167311959 cites W2056137498 @default.
• W2167311959 cites W2064383571 @default.
• W2167311959 cites W2067040321 @default.
• W2167311959 cites W2074649705 @default.
• W2167311959 cites W2075962237 @default.
• W2167311959 cites W2083857556 @default.
• W2167311959 cites W2090609585 @default.
• W2167311959 cites W2092870754 @default.
• W2167311959 cites W2106636290 @default.
• W2167311959 cites W2107606016 @default.
• W2167311959 cites W2118967362 @default.
• W2167311959 cites W2149308626 @default.
• W2167311959 cites W2172084595 @default.
• W2167311959 cites W2279504874 @default.
• W2167311959 cites W4245369636 @default.
• W2167311959 cites W4299483701 @default.
• W2167311959 doi "https://doi.org/10.5194/bg-6-2181-2009" @default.
• W2167311959 hasPublicationYear "2009" @default.
• W2167311959 type Work @default.
• W2167311959 sameAs 2167311959 @default.
• W2167311959 citedByCount "21" @default.
• W2167311959 countsByYear W21673119592012 @default.
• W2167311959 countsByYear W21673119592013 @default.
• W2167311959 countsByYear W21673119592014 @default.
• W2167311959 countsByYear W21673119592015 @default.
• W2167311959 countsByYear W21673119592016 @default.
• W2167311959 countsByYear W21673119592017 @default.
• W2167311959 countsByYear W21673119592018 @default.
• W2167311959 countsByYear W21673119592019 @default.
• W2167311959 countsByYear W21673119592020 @default.
• W2167311959 countsByYear W21673119592021 @default.
• W2167311959 countsByYear W21673119592022 @default.
• W2167311959 crossrefType "journal-article" @default.
• W2167311959 hasAuthorship W2167311959A5049825176 @default.
• W2167311959 hasAuthorship W2167311959A5064966921 @default.
• W2167311959 hasBestOaLocation W21673119591 @default.
• W2167311959 hasConcept C159390177 @default.
• W2167311959 hasConcept C159750122 @default.
• W2167311959 hasConcept C164752452 @default.
• W2167311959 hasConcept C178790620 @default.
• W2167311959 hasConcept C185592680 @default.
• W2167311959 hasConcept C18903297 @default.
• W2167311959 hasConcept C2776384668 @default.
• W2167311959 hasConcept C39432304 @default.
• W2167311959 hasConcept C537208039 @default.
• W2167311959 hasConcept C86803240 @default.
• W2167311959 hasConceptScore W2167311959C159390177 @default.
• W2167311959 hasConceptScore W2167311959C159750122 @default.
• W2167311959 hasConceptScore W2167311959C164752452 @default.
• W2167311959 hasConceptScore W2167311959C178790620 @default.
• W2167311959 hasConceptScore W2167311959C185592680 @default.
• W2167311959 hasConceptScore W2167311959C18903297 @default.
• W2167311959 hasConceptScore W2167311959C2776384668 @default.
• W2167311959 hasConceptScore W2167311959C39432304 @default.
• W2167311959 hasConceptScore W2167311959C537208039 @default.
• W2167311959 hasConceptScore W2167311959C86803240 @default.
• W2167311959 hasIssue "10" @default.
• W2167311959 hasLocation W21673119591 @default.
• W2167311959 hasOpenAccess W2167311959 @default.
• W2167311959 hasPrimaryLocation W21673119591 @default.
• W2167311959 hasRelatedWork W1598897843 @default.
• W2167311959 hasRelatedWork W1994025581 @default.
• W2167311959 hasRelatedWork W2005101072 @default.
• W2167311959 hasRelatedWork W2008804768 @default.
• W2167311959 hasRelatedWork W2038121529 @default.

• next