Matches in SemOpenAlex for { <https://semopenalex.org/work/W2190372016> ?p ?o ?g. }
- W2190372016 endingPage "264" @default.
- W2190372016 startingPage "256" @default.
- W2190372016 abstract "A mass distribution model was used to predict the fate of Diuron, Irgarol 1051 and Fenitrothion in Seto Inland Sea which is located in western Japan. This was done by using concentration, degradation, and literature data. Diuron and Irgarol 1051 in Seto Inland Sea are mainly derived from antifouling paints used for ships and boats. On the other hand Fenitrothion exclusively comes from land via rivers and atmospheric deposition. The total inputs/yr to Seto Inland Sea were found to be 104 tons, 7.65 tons and 5.14 tons for Diuron, Irgarol 1051 and Fenitrothion, respectively. The pesticide residence times were 0.26 yr, 0.36 yr and 0.17 yr for Diuron, Irgarol 1051 and Fenitrothion, respectively. Photodegradation was faster than biodegradation. In seawater, the half-life ranges were 37.9-57.3 d for photodegradation. In the same seawater the half-life ranges were 1650-2394 d for biodegradation. Photodegradation is effective in surface water (0-5 m depth) while biodegradation occurs throughout the entire water column. Plankton and fishes accumulate these pesticides significantly. The pesticides are deposited (sorbed and buried with) sediments (between 74 and 87% of total input amounts). The open ocean is an important sink accounting for between 8 and 17% of the total pesticide input amounts while photo- and biodegradation accounts for a small percentage." @default.
- W2190372016 created "2016-06-24" @default.
- W2190372016 creator A5012554509 @default.
- W2190372016 creator A5039265388 @default.
- W2190372016 creator A5091140865 @default.
- W2190372016 date "2016-02-01" @default.
- W2190372016 modified "2023-10-16" @default.
- W2190372016 title "Concentration and degradation of alternative biocides and an insecticide in surface waters and their major sinks in a semi-enclosed sea, Japan" @default.
- W2190372016 cites W1550985020 @default.
- W2190372016 cites W1963493903 @default.
- W2190372016 cites W1964697151 @default.
- W2190372016 cites W1965161638 @default.
- W2190372016 cites W1966741669 @default.
- W2190372016 cites W1969068803 @default.
- W2190372016 cites W1975010088 @default.
- W2190372016 cites W1977744541 @default.
- W2190372016 cites W1978612910 @default.
- W2190372016 cites W1983822766 @default.
- W2190372016 cites W1985293297 @default.
- W2190372016 cites W1999745621 @default.
- W2190372016 cites W1999918118 @default.
- W2190372016 cites W2010435478 @default.
- W2190372016 cites W2013583693 @default.
- W2190372016 cites W2016692012 @default.
- W2190372016 cites W2019284478 @default.
- W2190372016 cites W2020082293 @default.
- W2190372016 cites W2021179773 @default.
- W2190372016 cites W2022252372 @default.
- W2190372016 cites W2025852336 @default.
- W2190372016 cites W2026257307 @default.
- W2190372016 cites W2027900952 @default.
- W2190372016 cites W2029623159 @default.
- W2190372016 cites W2029756286 @default.
- W2190372016 cites W2031017393 @default.
- W2190372016 cites W2031328021 @default.
- W2190372016 cites W2033617488 @default.
- W2190372016 cites W2035566384 @default.
- W2190372016 cites W2035967430 @default.
- W2190372016 cites W2038402963 @default.
- W2190372016 cites W2038607254 @default.
- W2190372016 cites W2040130518 @default.
- W2190372016 cites W2040649078 @default.
- W2190372016 cites W2041131733 @default.
- W2190372016 cites W2041436428 @default.
- W2190372016 cites W2041700158 @default.
- W2190372016 cites W2042074285 @default.
- W2190372016 cites W2042994989 @default.
- W2190372016 cites W2049425565 @default.
- W2190372016 cites W2053401595 @default.
- W2190372016 cites W2054384045 @default.
- W2190372016 cites W2058653104 @default.
- W2190372016 cites W2061187563 @default.
- W2190372016 cites W2076341530 @default.
- W2190372016 cites W2081959122 @default.
- W2190372016 cites W2085160069 @default.
- W2190372016 cites W2085171892 @default.
- W2190372016 cites W2085979503 @default.
- W2190372016 cites W2088398828 @default.
- W2190372016 cites W2089034247 @default.
- W2190372016 cites W2089659198 @default.
- W2190372016 cites W2090912840 @default.
- W2190372016 cites W2093565806 @default.
- W2190372016 cites W2095297368 @default.
- W2190372016 cites W2111643382 @default.
- W2190372016 cites W2119729255 @default.
- W2190372016 cites W2129366925 @default.
- W2190372016 cites W2135116185 @default.
- W2190372016 cites W2151649942 @default.
- W2190372016 cites W2161778031 @default.
- W2190372016 cites W2179601253 @default.
- W2190372016 cites W2315007288 @default.
- W2190372016 cites W299750588 @default.
- W2190372016 cites W4229639500 @default.
- W2190372016 cites W4237661140 @default.
- W2190372016 doi "https://doi.org/10.1016/j.chemosphere.2015.11.100" @default.
- W2190372016 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/26688262" @default.
- W2190372016 hasPublicationYear "2016" @default.
- W2190372016 type Work @default.
- W2190372016 sameAs 2190372016 @default.
- W2190372016 citedByCount "24" @default.
- W2190372016 countsByYear W21903720162016 @default.
- W2190372016 countsByYear W21903720162017 @default.
- W2190372016 countsByYear W21903720162018 @default.
- W2190372016 countsByYear W21903720162020 @default.
- W2190372016 countsByYear W21903720162021 @default.
- W2190372016 countsByYear W21903720162022 @default.
- W2190372016 countsByYear W21903720162023 @default.
- W2190372016 crossrefType "journal-article" @default.
- W2190372016 hasAuthorship W2190372016A5012554509 @default.
- W2190372016 hasAuthorship W2190372016A5039265388 @default.
- W2190372016 hasAuthorship W2190372016A5091140865 @default.
- W2190372016 hasConcept C107872376 @default.
- W2190372016 hasConcept C108469399 @default.
- W2190372016 hasConcept C111368507 @default.
- W2190372016 hasConcept C122846477 @default.
- W2190372016 hasConcept C127313418 @default.
- W2190372016 hasConcept C143050476 @default.
- W2190372016 hasConcept C157021035 @default.