FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2000368007> ?p ?o ?g. }

• W2000368007 endingPage "288" @default.
• W2000368007 startingPage "249" @default.
• W2000368007 abstract "Sulfur is broadly recognized as a water quality issue of significance for the freshwater Florida Everglades. Roughly 60% of the remnant Everglades has surface water sulfate concentrations above 1 mg l−1, a restoration performance measure based on present sulfate levels in unenriched areas. Highly enriched marshes in the northern Everglades have average sulfate levels of 60 mg l−1. Sulfate loading to the Everglades is principally a result of land and water management in South Florida. The highest concentrations of sulfate (average 60–70 mg l−1) in the ecosystem are in canal water in the Everglades Agricultural Area (EAA). Potential sulfur sources in the watershed are many, but geochemical data and a preliminary sulfur mass balance for the EAA are consistent with sulfur presently used in agricultural, and sulfur released by oxidation of organic EAA soils (including legacy agricultural applications and natural sulfur) as the primary sources of sulfate enrichment in the EAA canals. Sulfate loading to the Everglades increases microbial sulfate reduction in soils, leading to more reducing conditions, greater cycling of nutrients in soils, production of toxic sulfide, and enhanced methylmercury (MeHg) production and bioaccumulation. Wetlands are zones of naturally high MeHg production, but the combination of high atmospheric mercury deposition rates in South Florida and elevated sulfate loading leads to increased MeHg production and MeHg risk to Everglades wildlife and human consumers. Sulfate from the EAA drainage canals penetrates deep into the Everglades Water Conservation Areas, and may extend into Everglades National Park. Present plans to restore sheet flow and to deliver more water to the Everglades may increase overall sulfur loads to the ecosystem, and move sulfate-enriched water further south. However, water management practices that minimize soil drying and rewetting cycles can mitigate sulfate release during soil oxidation. A comprehensive Everglades restoration strategy should include reduction of sulfur loads as a goal because of the many detrimental impacts of sulfate on the ecosystem. Monitoring data show that the ecosystem response to changes in sulfate levels is rapid, and strategies for reducing sulfate loading may be effective in the near term. A multifaceted approach employing best management practices for sulfur in agriculture, agricultural practices that minimize soil oxidation, and changes to stormwater treatment areas that increase sulfate retention could help achieve reduced sulfate loads to the Everglades, with resulting benefits." @default.
• W2000368007 created "2016-06-24" @default.
• W2000368007 creator A5003856756 @default.
• W2000368007 creator A5014418110 @default.
• W2000368007 creator A5023985279 @default.
• W2000368007 creator A5034539564 @default.
• W2000368007 creator A5047135618 @default.
• W2000368007 creator A5049878889 @default.
• W2000368007 creator A5058832533 @default.
• W2000368007 creator A5064620710 @default.
• W2000368007 creator A5083507311 @default.
• W2000368007 date "2011-02-17" @default.
• W2000368007 modified "2023-09-23" @default.
• W2000368007 title "Sulfur in the South Florida Ecosystem: Distribution, Sources, Biogeochemistry, Impacts, and Management for Restoration" @default.
• W2000368007 cites W135481597 @default.
• W2000368007 cites W1562240053 @default.
• W2000368007 cites W1589137729 @default.
• W2000368007 cites W1605950389 @default.
• W2000368007 cites W16531626 @default.
• W2000368007 cites W1968413715 @default.
• W2000368007 cites W1971329029 @default.
• W2000368007 cites W1976387683 @default.
• W2000368007 cites W1976925845 @default.
• W2000368007 cites W1979949624 @default.
• W2000368007 cites W1980833152 @default.
• W2000368007 cites W1984400192 @default.
• W2000368007 cites W1987677795 @default.
• W2000368007 cites W1988869797 @default.
• W2000368007 cites W1993453168 @default.
• W2000368007 cites W1994336434 @default.
• W2000368007 cites W1997932176 @default.
• W2000368007 cites W2002526037 @default.
• W2000368007 cites W2006283520 @default.
• W2000368007 cites W2008224475 @default.
• W2000368007 cites W2008267891 @default.
• W2000368007 cites W2014664994 @default.
• W2000368007 cites W2016555404 @default.
• W2000368007 cites W2019036889 @default.
• W2000368007 cites W2021790279 @default.
• W2000368007 cites W2026158117 @default.
• W2000368007 cites W2027224245 @default.
• W2000368007 cites W2027479441 @default.
• W2000368007 cites W2035727510 @default.
• W2000368007 cites W2042356857 @default.
• W2000368007 cites W2045505511 @default.
• W2000368007 cites W2049425358 @default.
• W2000368007 cites W2052077339 @default.
• W2000368007 cites W2052952760 @default.
• W2000368007 cites W2053883820 @default.
• W2000368007 cites W2061081978 @default.
• W2000368007 cites W2062985377 @default.
• W2000368007 cites W2067678067 @default.
• W2000368007 cites W2073047318 @default.
• W2000368007 cites W2083364577 @default.
• W2000368007 cites W2085018411 @default.
• W2000368007 cites W2086608659 @default.
• W2000368007 cites W2088166802 @default.
• W2000368007 cites W2090090213 @default.
• W2000368007 cites W2099818674 @default.
• W2000368007 cites W2102067029 @default.
• W2000368007 cites W2108910564 @default.
• W2000368007 cites W2116762821 @default.
• W2000368007 cites W2117058669 @default.
• W2000368007 cites W2118428418 @default.
• W2000368007 cites W2119999475 @default.
• W2000368007 cites W2121544501 @default.
• W2000368007 cites W2134551818 @default.
• W2000368007 cites W2135069153 @default.
• W2000368007 cites W2137574014 @default.
• W2000368007 cites W2148862577 @default.
• W2000368007 cites W2150225599 @default.
• W2000368007 cites W2152857327 @default.
• W2000368007 cites W2163532995 @default.
• W2000368007 cites W2163979767 @default.
• W2000368007 cites W2164325498 @default.
• W2000368007 cites W2166288935 @default.
• W2000368007 cites W2167586186 @default.
• W2000368007 cites W2171910754 @default.
• W2000368007 cites W2320131512 @default.
• W2000368007 cites W2333907994 @default.
• W2000368007 cites W4231995025 @default.
• W2000368007 cites W4233804769 @default.
• W2000368007 cites W4248437377 @default.
• W2000368007 cites W4248797294 @default.
• W2000368007 doi "https://doi.org/10.1080/10643389.2010.531201" @default.
• W2000368007 hasPublicationYear "2011" @default.
• W2000368007 type Work @default.
• W2000368007 sameAs 2000368007 @default.
• W2000368007 citedByCount "87" @default.
• W2000368007 countsByYear W20003680072012 @default.
• W2000368007 countsByYear W20003680072013 @default.
• W2000368007 countsByYear W20003680072014 @default.
• W2000368007 countsByYear W20003680072015 @default.
• W2000368007 countsByYear W20003680072016 @default.
• W2000368007 countsByYear W20003680072017 @default.
• W2000368007 countsByYear W20003680072018 @default.
• W2000368007 countsByYear W20003680072019 @default.
• W2000368007 countsByYear W20003680072020 @default.

• next