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Microstructure evolution during reduction and sintering of 3D-extrusion-printed Bi2O3+TeO2 inks to form Bi2Te3

Christoph Kenel, M. Malki, David C. Dunand

2021Acta Materialia13 citationsDOI

Topics & Concepts

Materials scienceSinteringMicrostructureExtrusionHomogenization (climate)OxideCeramicThermoelectric effectPorosityThermoelectric materialsPowder metallurgyMetallurgyChemical engineeringComposite materialBiodiversityEcologyPhysicsBiologyThermal conductivityEngineeringThermodynamicsAdvanced Thermoelectric Materials and DevicesMachine Learning in Materials ScienceAdditive Manufacturing Materials and Processes
Microstructure evolution during reduction and sintering of 3D-extrusion-printed Bi2O3+TeO2 inks to form Bi2Te3 | Litcius