Production of 3Y-PSZ Powders by Co-Precipitation and Milling

Erika Furlani; Eleonora Aneggi; Stefano Maschio

doi:10.4028/www.scientific.net/AST.54.50

Paper Titles

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Multilayered Magnetic Wires and Films for Electromagnetic Sensor Technology
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Piezoelectric Properties of Sputtered AlN Thin Films and their Applications
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Production of 3Y-PSZ Powders by Co-Precipitation and Milling
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Study of Langasite Crystal Micro-Resonators Using Length-Extension Mode: Temperature-Compensated Cuts and Applications to Atomic Force Microscopy
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Magnetic Temperature Transducers Made from Copper Based Soft Ferrite
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Ionic Polymeric Conductor Nano Composites (IPCNCs) as Distributed Nanosensors and Nanoactuators
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Design and Optimization of IPMC for Biomedical Applications
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HomeAdvances in Science and TechnologyAdvances in Science and Technology Vol. 54Production of 3Y-PSZ Powders by Co-Precipitation...

Production of 3Y-PSZ Powders by Co-Precipitation and Milling

Abstract:

The present research compares properties and behaviour of co-precipitated 3Y-PSZ powders submitted, after co-precipitation, to different milling treatments. The characteristics of the different products were evaluated by measurement of particle size distribution, thermogravimetric analysis, X-ray diffraction, specific surface area and scanning electron microscopy analysis. It has been demonstrated that 1h of attrition milling enables the production of powders with micrometric particles: the dispersing liquid used on milling has little influence. Crystallization of the amorphous powder is achieved after 1h of high energetic milling, without any thermal treatment.