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Isothermal corrosion testing of frit furnace refractories

dc.contributor.advisor Akkurt, Sedat en
dc.contributor.author Balıkoğlu, Fatih
dc.contributor.author Akgül, Bünyamin
dc.date.accessioned 2023-11-13T09:48:51Z
dc.date.available 2023-11-13T09:48:51Z
dc.date.issued 2008 en
dc.description Thesis (Master)--Izmir Institute of Technology, Materials Science and Engineering, Izmir, 2008 en
dc.description Includes bibliographical references (leaves: 92-94) en
dc.description Text in English; Abstract: Turkish and English en
dc.description xii, 94 leaves en
dc.description.abstract Results of a project aimed at understanding the corrosion behavior of aluminosilicate type of refractories in frit melts are presented. A refractory of largely andalusite and silimanite composition was compared to another brick of mullite and silimanite composition which was made by a different manufacturer for use in a different frit furnace. Density, porosity, microstructure and chemistry of both bricks are characterized before the corrosion tests. Isothermal tests were conducted by partially immersing a 15x15x115mm square specimen into a frit melt between 1404 and 1504oC in a vertical tube furnace. The frit used had an industrially used transparent frit composition. The effects of temperature, duration of exposure and refractory type were investigated using a statistically designed set of experiments. The ANOVA (Analysis of variance) table indicated that temperature and duration were more important factor effects. Increasing exposure duration and temperature both led to increased amount of corrosion as measured by the cross sectional area loss of the corroded specimen.Postmortem microstructural analysis was also done on the specimens and extensive amount of ZnO.Al2O3 precipitation was observed along the frit-refractory interface where also other crystals of mullite and alumina were found to precipitate. Increasing amount of duration and temperature produced more ZnO.Al2O3 precipitation. As identified by SEM-EDS analysis, mullite cyrstals were in the needle like morphology while alumina crystals were generally cubic. Because of their small concentration, XRD analysis could not reveal the phases of these crystals. More experiments were done by rotating the specimens in the melt at 50 rpm of rotational speed. Due to the reduction of boundary layer thickness, more dissolution was observed from the rotated specimens. In all specimens corrosion was more pronounced in the bond phase than through the large filler grains of mullite and andalusite.Keywords: Refractories, frit, corrosion, test. en
dc.identifier.doi 10.1016/j.ceramint.2009.06.002
dc.identifier.issn 0272-8842
dc.identifier.uri http://standard-demo.gcris.com/handle/123456789/5507
dc.language.iso en en_US
dc.publisher Izmir Institute of Technology en
dc.relation.ispartof Ceramics International
dc.rights info:eu-repo/semantics/openAccess en_US
dc.subject.lcc TA418.26 B171 2008 en
dc.subject.lcsh Refractory materials--Corrosion en
dc.subject.lcsh Materials at high temperatures--Testing en
dc.title Isothermal corrosion testing of frit furnace refractories en_US
dc.type Master Thesis en_US
dspace.entity.type Publication
gdc.author.institutional Balıkoğlu, Fatih
gdc.description.department Chemistry en_US
gdc.description.publicationcategory Tez en_US
gdc.description.volume 35
gdc.oaire.accepatencedate 2009-12-01
gdc.oaire.accesstype Bronze
gdc.oaire.diamondjournal false
gdc.oaire.downloads 118
gdc.oaire.impulse 1
gdc.oaire.influence 3.3026986E-9
gdc.oaire.influencealt 3
gdc.oaire.isgreen true
gdc.oaire.keywords Corrosion
gdc.oaire.keywords Frit melts
gdc.oaire.keywords Refractory materials
gdc.oaire.keywords Zinc oxide
gdc.oaire.keywords Aluminosilicates
gdc.oaire.magid 1988050973
gdc.oaire.popularity 8.351719E-10
gdc.oaire.popularityalt 0.14857294
gdc.oaire.publicfunded false
gdc.oaire.relevantdates created:2009-07-08
gdc.oaire.relevantdates published-print:2009-12-01
gdc.oaire.relevantdates issued:2009-01-01
gdc.oaire.relevantdates published-online:2009-07-07
gdc.oaire.sciencefields 010302 applied physics
gdc.oaire.sciencefields 0103 physical sciences
gdc.oaire.sciencefields 02100106 Corrosion/Coatings
gdc.oaire.sciencefields 02 engineering and technology
gdc.oaire.sciencefields 01030201 Alloys/Glass
gdc.oaire.sciencefields 021001 nanoscience & nanotechnology
gdc.oaire.sciencefields 0210 nano-technology
gdc.oaire.sciencefields 01 natural sciences
gdc.oaire.views 69
gdc.opencitations.count 2
gdc.plumx.crossrefcites 1
gdc.plumx.mendeley 15
gdc.plumx.scopuscites 4
relation.isAuthorOfPublication e0168463-da0c-4140-8ee5-8132d04f36e5
relation.isAuthorOfPublication.latestForDiscovery e0168463-da0c-4140-8ee5-8132d04f36e5

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