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From insulator to oxide-ion conductor by a synergistic effect from defect chemistry and microstructure: acceptor-doped Bi-excess sodium bismuth titanate Na<sub>0.5</sub>Bi<sub>0.51</sub>TiO<sub>3.015</sub>

Fan Yang, Julian S. Dean, Qiaodan Hu, Patrick Wu, Emilio Pradal‐Velázquez, Linhao Li, Derek C. Sinclair

2020Journal of Materials Chemistry A48 citationsDOI

Abstract

Low levels of acceptor-type dopants can introduce appreciable levels of oxide-ion conductivity into NB<sub>0.51</sub>T due to a synergistic effect from defect chemistry and ceramic microstructure.

Topics & Concepts

MicrostructureAcceptorDopingConductivityBismuthMaterials scienceIonOxideDopantInorganic chemistryBismuth titanateVacancy defectCeramicMineralogyChemistryCrystallographyFerroelectricityCondensed matter physicsPhysical chemistryMetallurgyDielectricOptoelectronicsPhysicsOrganic chemistryFerroelectric and Piezoelectric MaterialsAdvancements in Solid Oxide Fuel CellsElectronic and Structural Properties of Oxides
From insulator to oxide-ion conductor by a synergistic effect from defect chemistry and microstructure: acceptor-doped Bi-excess sodium bismuth titanate Na<sub>0.5</sub>Bi<sub>0.51</sub>TiO<sub>3.015</sub> | Litcius