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dc.contributor.authorKandhasamy, Sathiyaraj
dc.contributor.authorSolheim, Asbjørn
dc.contributor.authorKjelstrup, Signe
dc.contributor.authorHaarberg, Geir Martin
dc.date.accessioned2018-12-10T07:23:09Z
dc.date.available2018-12-10T07:23:09Z
dc.date.created2018-09-13T11:43:42Z
dc.date.issued2018
dc.identifier.issn2574-0962
dc.identifier.urihttp://hdl.handle.net/11250/2576713
dc.description.abstractIndustrial processes for the production of metals and alloys by metallurgical and electrochemical methods generate a great deal of waste heat due to irreversible losses. This waste heat may be used as a power source to generate electricity. A thermocell with noncritical and inexpensive molten carbonate based electrolyte mixtures with reversible (CO2|O2) gas electrodes was reported recently. It demonstrates the possibility of utilizing the waste heat (>550 °C) as a power source. A thermocell is an electrochemical cell with two identical electrodes placed in an ionic conducting electrolyte solution with a temperature gradient between the electrodes. The heat source will be used to create the temperature gradient between the electrodes, which will lead to a potential difference by executing ionic diffusion in the electrolyte. In this work, the thermophysical and chemical properties of the electrolyte mixture were tuned by multicomponent mixing with molten (K and Ca) carbonate and LiF additives into the binary (Li,Na) carbonate mixture. It reduces the liquidus temperature to ∼400 °C and enables the molten carbonate thermocells to recover the high-grade waste heat available at even low temperatures well below 550 °C. Still, the Seebeck coefficient of the thermocells remains large (in the range of −1.5 mV/K).nb_NO
dc.language.isoengnb_NO
dc.publisherAmerican Chemical Societynb_NO
dc.titleElectrolyte Melt Compositions for Low Temperature Molten Carbonate Thermocellnb_NO
dc.title.alternativeElectrolyte Melt Compositions for Low Temperature Molten Carbonate Thermocellnb_NO
dc.typeJournal articlenb_NO
dc.typePeer reviewednb_NO
dc.description.versionacceptedVersionnb_NO
dc.source.pagenumber5386–5393nb_NO
dc.source.volume1nb_NO
dc.source.journalACS Applied Energy Materialsnb_NO
dc.source.issue10nb_NO
dc.identifier.doi10.1021/acsaem.8b00984
dc.identifier.cristin1609143
dc.description.localcode© American Chemical Society 2018. This is the authors accepted and refereed manuscript to the article.Locked until 10.9.2019 due to copyright restrictions.nb_NO
cristin.unitcode194,66,35,0
cristin.unitcode194,66,25,0
cristin.unitnameInstitutt for materialteknologi
cristin.unitnameInstitutt for kjemi
cristin.ispublishedfalse
cristin.fulltextpreprint


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