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Development of plasma sprayed Ni/YSZ anodes for metal supported solid oxide fuel cells

Solid oxide fuel cells (SOFCs) offer a promising technique for producing electricity by clean energy conversion through an electrochemical reaction of fuel and air. Plasma spraying could be a potential manufacturing route for commercial SOFCs, as it provides a distinct advantage especially in case o...

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Published in:Surface & coatings technology 2017-05, Vol.318, p.178-189
Main Authors: Gupta, M., Weber, A., Markocsan, N., Heiden, N.
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description Solid oxide fuel cells (SOFCs) offer a promising technique for producing electricity by clean energy conversion through an electrochemical reaction of fuel and air. Plasma spraying could be a potential manufacturing route for commercial SOFCs, as it provides a distinct advantage especially in case of metal supported cells (MSCs) by allowing rapid processing at relatively low processing temperatures preventing thus the degradation of the metallic substrate. The objective of this work was to develop nickel/yttria stabilised zirconia (Ni/YSZ) anodes with high porosity and homogeneous phase distribution by atmospheric plasma spraying for MSCs. Various feedstock material approaches were explored in this study, both with single injection as well as separate injection of different feedstock materials , and with and without the use of pore formers to create additional porosity. The advantages and issues with each material route were investigated and discussed. It was shown that agglomerated Ni/YSZ/polyester feedstock material resulted in the best distribution of Ni and YSZ in the anode microstructure with homogeneous porosity. Subsequently, the Ni/YSZ/polyester material route with different amounts and size distributions of polyester was chosen to develop anode symmetrical cells using a commercial zirconia sheet as support for electrochemical testing. The Ni/YSZ/polyester anode powder with 10wt.% standard size polyester exhibited the best electrochemical performance. The results show that plasma spraying of the agglomerated Ni/YSZ/polyester could be a promising route to achieve high performance and rapid production anodes without using the carcinogenic nickel oxide. •Different feedstock material routes to achieve Ni/YSZ anode with APS were explored.•Agglomerated Ni, YSZ and polyester powder showed best microstructure.•Four anode powders with varying pore former content and size distribution studied.•Electrochemical testing of symmetrical cells with the four anodes was performed.
doi_str_mv 10.1016/j.surfcoat.2016.09.014
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subjects Anodes
Atmospheric plasma spraying
Carcinogens
Clean energy
Electrochemical analysis
Electrochemical testing
Energy conversion
Metal supported cells
Microstructure
Ni/YSZ anode
Nickel
Phase distribution
Plasma spraying
Pore formers
Porosity
Raw materials
Solid oxide fuel cells
Studies
Yttria-stabilized zirconia
Yttrium oxide
Zirconium dioxide
title Development of plasma sprayed Ni/YSZ anodes for metal supported solid oxide fuel cells
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