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Advancements in electrolyte materials and hybrid integration for enhanced solid oxide fuel cell performance

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dc.contributor.author Kuterbekov, Kairat A.
dc.contributor.author Kabyshev, Asset M.
dc.contributor.author Bekmyrza, Kenzhebatyr Zh.
dc.contributor.author Kubenova, Marzhan M.
dc.contributor.author Kabdrakhimova, Gaukhar
dc.contributor.author Abdullayeva, Iroda
dc.contributor.author Ayalew, Abebe Temesgen
dc.date.accessioned 2026-03-05T09:32:58Z
dc.date.available 2026-03-05T09:32:58Z
dc.date.issued 2025
dc.identifier.issn 1748-1317
dc.identifier.other doi.org/10.1093/ijlct/ctaf007
dc.identifier.uri http://repository.enu.kz/handle/enu/29852
dc.description.abstract Solid oxide fuel cells (SOFCs) offer high efficiency and fuel adaptability but face challenges like high operating temperatures and material degradation. This study focuses on innovative solutions, including doped ceria-based electrolytes with ionic conductivity of 0.1 S/cm at 600◦C, reducing operating temperature by 200◦C and extending lifespan by 29.15%. Composite anodes with hierarchical pores achieved a power density of 1.2 W/cm2 (25% improvement) and maintained stability over 5000 h with <1% degradation per 1000 h. Hybrid integration with micro gas turbines improved efficiency to 69.48% (14.28% increase) and cut CO2 emissions by 21%, advancing SOFC viability as sustainable energy solution. ru
dc.language.iso en ru
dc.publisher International Journal of Low-Carbon Technologies ru
dc.relation.ispartofseries 20, 353–367;
dc.subject electrode design ru
dc.subject electrolyte materials ru
dc.subject hybrid systems ru
dc.subject solid oxide fuel cells ru
dc.subject SOFC efficiency ru
dc.subject CO2 emission ru
dc.title Advancements in electrolyte materials and hybrid integration for enhanced solid oxide fuel cell performance ru
dc.type Article ru


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