Publication:
Immobilization of antimony waste slag by applying geopolymerization and stabilization/solidification technologies

dc.contributor.buuauthorSalihoğlu, Güray
dc.contributor.departmentMühendislik Fakültesi
dc.contributor.departmentÇevre Mühendisliği Bölümü
dc.contributor.researcheridAAG-9399-2021
dc.contributor.scopusid8551769300
dc.date.accessioned2022-06-15T12:27:55Z
dc.date.available2022-06-15T12:27:55Z
dc.date.issued2014-11-02
dc.description.abstractDuring the processing of antimony ore by pyrometallurgical methods, a considerable amount of slag is formed. This antimony waste slag is listed by the European Union as absolutely hazardous waste with a European Waste Catalogue code of 10 08 08. Since the levels of antimony and arsenic in the leachate of the antimony waste slag are generally higher than the landfilling limits, it is necessary to treat the slag before landfilling. In this study, stabilization/solidification and geopolymerization technologies were both applied in order to limit the leaching potential of antimony and arsenic. Different combinations of pastes by using Portland cement, fly ash, clay, gypsum, and blast furnace slag were prepared as stabilization/solidification or geopolymer matrixes. Sodium silicate-sodium hydroxide solution and sodium hydroxide solution at 8 M were used as activators for geopolymer samples. Efficiencies of the combinations were evaluated in terms of leaching and unconfined compressive strength. None of the geopolymer samples prepared with the activators yielded arsenic and antimony leaching below the regulatory limit at the same time, although they yielded high unconfined compressive strength levels. On the other hand, the stabilization/solidification samples prepared by using water showed low leaching results meeting the landfilling criteria. Use of gypsum as an additive was found to be successful in immobilizing the arsenic and antimony.
dc.identifier.citationSalihoğlu, G. (2014). "Immobilization of antimony waste slag by applying geopolymerization and stabilization/solidification technologies". Journal of the Air and Waste Management Association, 64(11), 1288-1298.
dc.identifier.endpage1298
dc.identifier.issn1096-2247
dc.identifier.issn2162-2906
dc.identifier.issue11
dc.identifier.pubmed25509550
dc.identifier.scopus2-s2.0-84922257996
dc.identifier.startpage1288
dc.identifier.urihttps://doi.org/10.1080/10962247.2014.943352
dc.identifier.urihttps://www.tandfonline.com/doi/full/10.1080/10962247.2014.943352
dc.identifier.urihttp://hdl.handle.net/11452/27181
dc.identifier.volume64
dc.identifier.wos000343313500009
dc.indexed.wosSCIE
dc.language.isoen
dc.publisherTaylor & Francis
dc.relation.bapOUAP (M)-2013/8
dc.relation.journalJournal of the Air and Waste Management Association
dc.relation.publicationcategoryMakale - Uluslararası Hakemli Dergi
dc.rightsinfo:eu-repo/semantics/openAccess
dc.subjectFly-ash
dc.subjectSolidifications-stabilization
dc.subjectPortland-cement
dc.subjectSolid-wastes
dc.subjectLime
dc.subjectMechanism
dc.subjectMetal
dc.subjectSB
dc.subjectEngineering
dc.subjectEnvironmental sciences & ecology
dc.subjectMeteorology & atmospheric sciences
dc.subjectArsenic
dc.subjectBlast furnaces
dc.subjectCompressive strength
dc.subjectEfficiency
dc.subjectFly ash
dc.subjectGeopolymers
dc.subjectGypsum
dc.subjectHazards
dc.subjectIndustrial waste disposal
dc.subjectInorganic polymers
dc.subjectLeaching
dc.subjectOres
dc.subjectPortland cement
dc.subjectSilicates
dc.subjectSlags
dc.subjectSodium hydroxide
dc.subjectStabilization
dc.subjectEuropean waste catalogues
dc.subjectGeopolymer matrix
dc.subjectGeopolymerization
dc.subjectImmobilization mechanisms
dc.subjectLeaching potential
dc.subjectSodium hydroxide solutions
dc.subjectStabilization/solidification
dc.subjectUnconfined compressive strength
dc.subjectAntimony
dc.subject.emtreeAntimony
dc.subject.emtreeArsenic
dc.subject.emtreeCalcium sulfate
dc.subject.emtreeSodium hydroxide
dc.subject.emtreeAluminum silicate
dc.subject.emtreeClay
dc.subject.emtreeHazardous waste
dc.subject.emtreeIndustrial waste
dc.subject.emtreeAntimony waste slag
dc.subject.emtreeArticle
dc.subject.emtreeCompressive strength
dc.subject.emtreeFly ash
dc.subject.emtreeFurnace
dc.subject.emtreeGeopolymerization
dc.subject.emtreeLeaching
dc.subject.emtreeMine tailings
dc.subject.emtreePolymerization
dc.subject.emtreePriority journal
dc.subject.emtreeSlag
dc.subject.emtreeAnalysis
dc.subject.emtreeChemistry
dc.subject.emtreeIndustrial waste
dc.subject.emtreeMining
dc.subject.emtreepH
dc.subject.emtreePolymerization
dc.subject.emtreeProcedures
dc.subject.emtreeWaste disposal
dc.subject.meshAluminum silicates
dc.subject.meshAntimony
dc.subject.meshCalcium sulfate
dc.subject.meshHazardous waste
dc.subject.meshHydrogen-Ion concentration
dc.subject.meshIndustrial waste
dc.subject.meshMining
dc.subject.meshPolymerization
dc.subject.meshRefuse disposal
dc.subject.scopusSolidification; Cement; Portland Cement
dc.subject.wosEngineering, environmental
dc.subject.wosEnvironmental sciences
dc.subject.wosMeteorology & atmospheric sciences
dc.titleImmobilization of antimony waste slag by applying geopolymerization and stabilization/solidification technologies
dc.typeArticle
dc.wos.quartileQ3
dspace.entity.typePublication
local.contributor.departmentMühendislik Fakültesi/Çevre Mühendisliği Bölümü
local.indexed.atScopus
local.indexed.atWOS

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