277 related articles for article (PubMed ID: 31018416)
21. Sulfate availability drives divergent evolution of arsenic speciation during microbially mediated reductive transformation of schwertmannite.
Burton ED; Johnston SG; Kraal P; Bush RT; Claff S
Environ Sci Technol; 2013 Mar; 47(5):2221-9. PubMed ID: 23373718
[TBL] [Abstract][Full Text] [Related]
22. Speciation and characterization of arsenic in Ketza River mine tailings using X-ray absorption spectroscopy.
Paktunc D; Foster A; Laflamme G
Environ Sci Technol; 2003 May; 37(10):2067-74. PubMed ID: 12785509
[TBL] [Abstract][Full Text] [Related]
23. Arsenic species formed from arsenopyrite weathering along a contamination gradient in Circumneutral river floodplain soils.
Mandaliev PN; Mikutta C; Barmettler K; Kotsev T; Kretzschmar R
Environ Sci Technol; 2014; 48(1):208-17. PubMed ID: 24283255
[TBL] [Abstract][Full Text] [Related]
24. Recovering iron and sulfate in the form of mineral from acid mine drainage by a bacteria-driven cyclic biomineralization system.
Wang X; Jiang H; Zheng G; Liang J; Zhou L
Chemosphere; 2021 Jan; 262():127567. PubMed ID: 32755692
[TBL] [Abstract][Full Text] [Related]
25. The role of cassiterite controlling arsenic mobility in an abandoned stanniferous tailings impoundment at Llallagua, Bolivia.
Romero FM; Canet C; Alfonso P; Zambrana RN; Soto N
Sci Total Environ; 2014 May; 481():100-7. PubMed ID: 24589759
[TBL] [Abstract][Full Text] [Related]
26. Dissimilatory bioreduction of iron(III) oxides by Shewanella loihica under marine sediment conditions.
Benaiges-Fernandez R; Palau J; Offeddu FG; Cama J; Urmeneta J; Soler JM; Dold B
Mar Environ Res; 2019 Oct; 151():104782. PubMed ID: 31514974
[TBL] [Abstract][Full Text] [Related]
27. Microbial reduction of arsenic-doped schwertmannite by Geobacter sulfurreducens.
Cutting RS; Coker VS; Telling ND; Kimber RL; van der Laan G; Pattrick RA; Vaughan DJ; Arenholz E; Lloyd JR
Environ Sci Technol; 2012 Nov; 46(22):12591-9. PubMed ID: 23043215
[TBL] [Abstract][Full Text] [Related]
28. Geochemistry and pH control of seepage from Ni-Cu rich mine tailings at Selebi Phikwe, Botswana.
Sracek O; Kříbek B; Mihaljevič M; Ettler V; Vaněk A; Penížek V; Filip J; Veselovský F; Bagai ZB
Environ Monit Assess; 2018 Jul; 190(8):482. PubMed ID: 30039179
[TBL] [Abstract][Full Text] [Related]
29. Temperature and nutrients as drivers of microbially mediated arsenic oxidation and removal from acid mine drainage.
Tardy V; Casiot C; Fernandez-Rojo L; Resongles E; Desoeuvre A; Joulian C; Battaglia-Brunet F; Héry M
Appl Microbiol Biotechnol; 2018 Mar; 102(5):2413-2424. PubMed ID: 29380031
[TBL] [Abstract][Full Text] [Related]
30. Removal of As(III) and As(V) from water using a natural Fe and Mn enriched sample.
Deschamps E; Ciminelli VS; Höll WH
Water Res; 2005 Dec; 39(20):5212-20. PubMed ID: 16290184
[TBL] [Abstract][Full Text] [Related]
31. Confounding impacts of iron reduction on arsenic retention.
Tufano KJ; Fendorf S
Environ Sci Technol; 2008 Jul; 42(13):4777-83. PubMed ID: 18678005
[TBL] [Abstract][Full Text] [Related]
32. Metal mobilization by iron- and sulfur-oxidizing bacteria in a multiple extreme mine tailings in the Atacama Desert, Chile.
Korehi H; Blöthe M; Sitnikova MA; Dold B; Schippers A
Environ Sci Technol; 2013 Mar; 47(5):2189-96. PubMed ID: 23373853
[TBL] [Abstract][Full Text] [Related]
33. Arsenic release from arsenopyrite weathering: insights from sequential extraction and microscopic studies.
Basu A; Schreiber ME
J Hazard Mater; 2013 Nov; 262():896-904. PubMed ID: 23312782
[TBL] [Abstract][Full Text] [Related]
34. Arsenic mineralogy and mobility in the arsenic-rich historical mine waste dump.
Filippi M; Drahota P; Machovič V; Böhmová V; Mihaljevič M
Sci Total Environ; 2015 Dec; 536():713-728. PubMed ID: 26254072
[TBL] [Abstract][Full Text] [Related]
35. Fluvial transport and surface enrichment of arsenic in semi-arid mining regions: examples from the Mojave Desert, California.
Kim CS; Stack DH; Rytuba JJ
J Environ Monit; 2012 Jul; 14(7):1798-813. PubMed ID: 22718027
[TBL] [Abstract][Full Text] [Related]
36. Efficient Low-pH Iron Removal by a Microbial Iron Oxide Mound Ecosystem at Scalp Level Run.
Grettenberger CL; Pearce AR; Bibby KJ; Jones DS; Burgos WD; Macalady JL
Appl Environ Microbiol; 2017 Apr; 83(7):. PubMed ID: 28087535
[TBL] [Abstract][Full Text] [Related]
37. Reductive dissolution and sequestration of arsenic by microbial iron and thiosulfate reduction.
Ko MS; Lee S; Kim KW
Environ Geochem Health; 2019 Feb; 41(1):461-467. PubMed ID: 29520475
[TBL] [Abstract][Full Text] [Related]
38. Landfill-stimulated iron reduction and arsenic release at the Coakley Superfund Site (NH).
deLemos JL; Bostick BC; Renshaw CE; Stürup S; Feng X
Environ Sci Technol; 2006 Jan; 40(1):67-73. PubMed ID: 16433334
[TBL] [Abstract][Full Text] [Related]
39. Role of microbial activity in Fe(III) hydroxysulfate mineral transformations in an acid mine drainage-impacted site from the Dabaoshan Mine.
Bao Y; Guo C; Lu G; Yi X; Wang H; Dang Z
Sci Total Environ; 2018 Mar; 616-617():647-657. PubMed ID: 29103647
[TBL] [Abstract][Full Text] [Related]
40. Magnetite recovery from copper tailings increases arsenic distribution in solution phase and uptake in native grass.
Liu Y; Huang L
J Environ Manage; 2017 Jan; 186(Pt 2):175-182. PubMed ID: 27210238
[TBL] [Abstract][Full Text] [Related]
[Previous] [Next] [New Search]