FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2903888085> ?p ?o ?g. }

• W2903888085 endingPage "130" @default.
• W2903888085 startingPage "119" @default.
• W2903888085 abstract "Trans-boundary PM10 transport into eastern Germany was quantified by comparing mean PM10 concentrations during western and eastern air mass inflow under similar meteorological conditions and calculating an “increment East” as a proxy for the trans-boundary PM10 fraction. Data of 10 measurement stations located in Berlin, Brandenburg, Mecklenburg-Western Pomerania and Saxony were used for winter 2016/17 and revealed trans-boundary PM10 increments of 0–30 μg m−3 on average, depending on meteorological conditions. On average over all days with positive increments, trans-boundary transport contributed 13 μg m−3 or 44% to the total PM10 concentration in the regional background. During pollution periods with elevated PM10 concentrations of >30 μg m−3 at rural background sites, this contribution lied between 44 and 62%, while it decreased to about 20% for moderate PM10 concentrations between 20 and 30 μg m−3 and was negligible for PM10 concentrations <20 μg m−3. Based on its chemical composition, PM10 was apportioned to 6–7 different sources by positive matrix factorisation (PMF) receptor modelling. It was found that typically >80% of the trans-boundary PM10 fraction imported from eastern neighbouring countries can be explained by combustion emissions and formation of secondary particle mass, i.e. ammonium sulfate and organic matter, with the latter typically exceeding the contributions from combustion. Source contributions of these two PMF factors within the increment East were correlated, indicating combustion-related emissions of SO2 and volatile organic compounds leading to the observed secondary trans-boundary PM10 mass. Higher increment East values for cold than for warm days imply emissions from domestic heating in eastern European countries, presumably from the combustion of solid fuels such as wood and coal, as the dominant source for trans-boundary PM10 in eastern Germany. A case study for a traffic-impacted pollution hotspot in the city of Berlin showed an average contribution of about 30% from trans-boundary transport, while regional background, urban background and local traffic emissions explained about 40, 10, and 20% of PM10 mass concentrations during days with eastern air mass inflow where the increment East approach could be applied together with the incremental Lenschow approach. The results of this study reinforce the need of PM10 mitigation measures at different spatial scales, ranging from municipal to international levels." @default.
• W2903888085 created "2018-12-22" @default.
• W2903888085 creator A5003239040 @default.
• W2903888085 creator A5023101894 @default.
• W2903888085 creator A5037914392 @default.
• W2903888085 creator A5039175769 @default.
• W2903888085 creator A5053293961 @default.
• W2903888085 date "2019-03-01" @default.
• W2903888085 modified "2023-10-18" @default.
• W2903888085 title "Trans-boundary PM10: Quantifying impact and sources during winter 2016/17 in eastern Germany" @default.
• W2903888085 cites W1485504984 @default.
• W2903888085 cites W1972417965 @default.
• W2903888085 cites W1973975204 @default.
• W2903888085 cites W1974724481 @default.
• W2903888085 cites W1978398464 @default.
• W2903888085 cites W1992127154 @default.
• W2903888085 cites W1992610182 @default.
• W2903888085 cites W2001018534 @default.
• W2903888085 cites W2009598717 @default.
• W2903888085 cites W2021329998 @default.
• W2903888085 cites W2029386564 @default.
• W2903888085 cites W2036302056 @default.
• W2903888085 cites W2038567459 @default.
• W2903888085 cites W2040194338 @default.
• W2903888085 cites W2044499383 @default.
• W2903888085 cites W2045160508 @default.
• W2903888085 cites W2047364731 @default.
• W2903888085 cites W2049657784 @default.
• W2903888085 cites W2057612876 @default.
• W2903888085 cites W2061812701 @default.
• W2903888085 cites W2064804997 @default.
• W2903888085 cites W2065829262 @default.
• W2903888085 cites W2076253597 @default.
• W2903888085 cites W2076549499 @default.
• W2903888085 cites W2102615287 @default.
• W2903888085 cites W2114650750 @default.
• W2903888085 cites W2115599167 @default.
• W2903888085 cites W2131624901 @default.
• W2903888085 cites W2291935010 @default.
• W2903888085 cites W2292076886 @default.
• W2903888085 cites W2606388712 @default.
• W2903888085 cites W2607936150 @default.
• W2903888085 cites W2740732219 @default.
• W2903888085 cites W2748129173 @default.
• W2903888085 cites W2788519020 @default.
• W2903888085 cites W369799413 @default.
• W2903888085 doi "https://doi.org/10.1016/j.atmosenv.2018.11.061" @default.
• W2903888085 hasPublicationYear "2019" @default.
• W2903888085 type Work @default.
• W2903888085 sameAs 2903888085 @default.
• W2903888085 citedByCount "13" @default.
• W2903888085 countsByYear W29038880852019 @default.
• W2903888085 countsByYear W29038880852020 @default.
• W2903888085 countsByYear W29038880852021 @default.
• W2903888085 countsByYear W29038880852022 @default.
• W2903888085 countsByYear W29038880852023 @default.
• W2903888085 crossrefType "journal-article" @default.
• W2903888085 hasAuthorship W2903888085A5003239040 @default.
• W2903888085 hasAuthorship W2903888085A5023101894 @default.
• W2903888085 hasAuthorship W2903888085A5037914392 @default.
• W2903888085 hasAuthorship W2903888085A5039175769 @default.
• W2903888085 hasAuthorship W2903888085A5053293961 @default.
• W2903888085 hasConcept C105923489 @default.
• W2903888085 hasConcept C107872376 @default.
• W2903888085 hasConcept C126314574 @default.
• W2903888085 hasConcept C127313418 @default.
• W2903888085 hasConcept C153294291 @default.
• W2903888085 hasConcept C178790620 @default.
• W2903888085 hasConcept C185592680 @default.
• W2903888085 hasConcept C205649164 @default.
• W2903888085 hasConcept C24245907 @default.
• W2903888085 hasConcept C2778343803 @default.
• W2903888085 hasConcept C2779345167 @default.
• W2903888085 hasConcept C39432304 @default.
• W2903888085 hasConcept C559116025 @default.
• W2903888085 hasConcept C91586092 @default.
• W2903888085 hasConceptScore W2903888085C105923489 @default.
• W2903888085 hasConceptScore W2903888085C107872376 @default.
• W2903888085 hasConceptScore W2903888085C126314574 @default.
• W2903888085 hasConceptScore W2903888085C127313418 @default.
• W2903888085 hasConceptScore W2903888085C153294291 @default.
• W2903888085 hasConceptScore W2903888085C178790620 @default.
• W2903888085 hasConceptScore W2903888085C185592680 @default.
• W2903888085 hasConceptScore W2903888085C205649164 @default.
• W2903888085 hasConceptScore W2903888085C24245907 @default.
• W2903888085 hasConceptScore W2903888085C2778343803 @default.
• W2903888085 hasConceptScore W2903888085C2779345167 @default.
• W2903888085 hasConceptScore W2903888085C39432304 @default.
• W2903888085 hasConceptScore W2903888085C559116025 @default.
• W2903888085 hasConceptScore W2903888085C91586092 @default.
• W2903888085 hasLocation W29038880851 @default.
• W2903888085 hasOpenAccess W2903888085 @default.
• W2903888085 hasPrimaryLocation W29038880851 @default.
• W2903888085 hasRelatedWork W1980969051 @default.
• W2903888085 hasRelatedWork W1982860627 @default.
• W2903888085 hasRelatedWork W1994675574 @default.
• W2903888085 hasRelatedWork W2004318300 @default.
• W2903888085 hasRelatedWork W2117703167 @default.

• next