FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W4377089041> ?p ?o ?g. }

• W4377089041 endingPage "138996" @default.
• W4377089041 startingPage "138996" @default.
• W4377089041 abstract "There is a lack of simple and effective methods to quantify the fate processes of persistent organic pollutants (POPs) in bioretention systems. In this study, the fate and elimination processes of three typical 13C-labeled POPs in regularly added bioretention columns were quantified using stable carbon isotope analysis techniques. The results showed that the modified media bioretention column removed more than 90% of Pyrene, PCB169 and p,p'-DDT. Media adsorption was the dominant removal mechanism for the reduction of the three exogenous organic compounds (59.1–71.8% of the input) although plant uptake (5.9–18.0%) was also important. Mineralization was effective in degrading pyrene (13.1%) but had a very limited effect on p,p'-DDT and PCB169 removal (<2.0%), the reason for which may be related to the aerobic conditions of the filter column. Volatilization was relatively weak and negligible (<1.5%). The presence of heavy metals inhibited the removal of POPs to some extent: media adsorption, mineralization and plant uptake were reduced by 4.3–6.4%, 1.8–8.3% and 1.5–3.6% respectively. This study suggests that bioretention systems are an effective measure for the sustainable removal of POPs from stormwater and that heavy metals can inhibit the overall performance of the system. Stable carbon isotope analysis techniques can help to investigate the migration and transformation of POPs in bioretention systems." @default.
• W4377089041 created "2023-05-20" @default.
• W4377089041 creator A5080655703 @default.
• W4377089041 creator A5088359525 @default.
• W4377089041 creator A5088572200 @default.
• W4377089041 date "2023-09-01" @default.
• W4377089041 modified "2023-10-03" @default.
• W4377089041 title "The fate of three typical persistent organic pollutants in bioretention columns as revealed by stable carbon isotopes" @default.
• W4377089041 cites W117447117 @default.
• W4377089041 cites W1505991377 @default.
• W4377089041 cites W1963957124 @default.
• W4377089041 cites W1970197314 @default.
• W4377089041 cites W1972658490 @default.
• W4377089041 cites W1973114393 @default.
• W4377089041 cites W1979386160 @default.
• W4377089041 cites W1987400223 @default.
• W4377089041 cites W1994146779 @default.
• W4377089041 cites W1994745985 @default.
• W4377089041 cites W1997841782 @default.
• W4377089041 cites W2002851648 @default.
• W4377089041 cites W2007862602 @default.
• W4377089041 cites W2008106326 @default.
• W4377089041 cites W2009149307 @default.
• W4377089041 cites W2009382555 @default.
• W4377089041 cites W2010434739 @default.
• W4377089041 cites W2011830722 @default.
• W4377089041 cites W2018604740 @default.
• W4377089041 cites W2023331182 @default.
• W4377089041 cites W2024521959 @default.
• W4377089041 cites W2043378829 @default.
• W4377089041 cites W2045430259 @default.
• W4377089041 cites W2050949270 @default.
• W4377089041 cites W2055411038 @default.
• W4377089041 cites W2056905750 @default.
• W4377089041 cites W2057555501 @default.
• W4377089041 cites W2058054651 @default.
• W4377089041 cites W2059010236 @default.
• W4377089041 cites W2062156204 @default.
• W4377089041 cites W2062356685 @default.
• W4377089041 cites W2068799779 @default.
• W4377089041 cites W2076854046 @default.
• W4377089041 cites W2080740648 @default.
• W4377089041 cites W2082267527 @default.
• W4377089041 cites W2086989463 @default.
• W4377089041 cites W2093337375 @default.
• W4377089041 cites W2103380128 @default.
• W4377089041 cites W2111392726 @default.
• W4377089041 cites W2112726419 @default.
• W4377089041 cites W2115503266 @default.
• W4377089041 cites W2156477508 @default.
• W4377089041 cites W2166336329 @default.
• W4377089041 cites W2225100827 @default.
• W4377089041 cites W2326557215 @default.
• W4377089041 cites W2344087070 @default.
• W4377089041 cites W2469913215 @default.
• W4377089041 cites W2502672822 @default.
• W4377089041 cites W2565096041 @default.
• W4377089041 cites W2748928903 @default.
• W4377089041 cites W2752857254 @default.
• W4377089041 cites W2883937582 @default.
• W4377089041 cites W2888951958 @default.
• W4377089041 cites W2944030690 @default.
• W4377089041 cites W2951117130 @default.
• W4377089041 cites W2978461862 @default.
• W4377089041 cites W301090298 @default.
• W4377089041 cites W3016737050 @default.
• W4377089041 cites W3133827318 @default.
• W4377089041 cites W3137793963 @default.
• W4377089041 cites W3161899440 @default.
• W4377089041 cites W3174577839 @default.
• W4377089041 cites W3176412050 @default.
• W4377089041 cites W4221077787 @default.
• W4377089041 doi "https://doi.org/10.1016/j.chemosphere.2023.138996" @default.
• W4377089041 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/37211166" @default.
• W4377089041 hasPublicationYear "2023" @default.
• W4377089041 type Work @default.
• W4377089041 citedByCount "2" @default.
• W4377089041 countsByYear W43770890412023 @default.
• W4377089041 crossrefType "journal-article" @default.
• W4377089041 hasAuthorship W4377089041A5080655703 @default.
• W4377089041 hasAuthorship W4377089041A5088359525 @default.
• W4377089041 hasAuthorship W4377089041A5088572200 @default.
• W4377089041 hasConcept C107872376 @default.
• W4377089041 hasConcept C111696902 @default.
• W4377089041 hasConcept C121332964 @default.
• W4377089041 hasConcept C150394285 @default.
• W4377089041 hasConcept C173051318 @default.
• W4377089041 hasConcept C178790620 @default.
• W4377089041 hasConcept C185592680 @default.
• W4377089041 hasConcept C18903297 @default.
• W4377089041 hasConcept C22117777 @default.
• W4377089041 hasConcept C2778396350 @default.
• W4377089041 hasConcept C39432304 @default.
• W4377089041 hasConcept C50477045 @default.
• W4377089041 hasConcept C537208039 @default.
• W4377089041 hasConcept C5413467 @default.
• W4377089041 hasConcept C62520636 @default.
• W4377089041 hasConcept C82685317 @default.

• next