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This study presents a nanofiber-derived functional anode consisting of proton-conducting SrCe0·8Y0·2O3-δ nanofibers and electro-catalytic Ni for proton-conducting solid oxide fuel cells. Fuel cell testing with the nano-fibrous SrCe0·8Y0·2O3-δ-Ni anode exhibits a maximum power density of 201.0 mW/cm2 at 800 °C, which is significantly higher than those of cells with a powder-derived Ba0·8Sr0·2Ce0·6Zr0·2Y0·2O3-δ-Ni anode or a nano-fibrous SrCe0·8Y0·2O3-δ anode. Its relatively lower ohmic resistance can be explained in terms of protonic and electronic “highways” throughout the nano-fibrous SrCe0·8Y0·2O3-δ-Ni anode. The significantly lower polarization resistance elements, R1 and R2, further indicate that the nano-fibrous SrCe0·8Y0·2O3-δ-Ni anode has superior catalytic activity for the hydrogen oxidation reaction and thus generates more protons that can participate in the cathode reactions. The results show that the performance enhancement in the fuel cell with the nano-fibrous SrCe0·8Y0·2O3-δ-Ni anode can be attributed to its low ohmic resistance, excellent electrode catalytic activity, and good gas transport property.
|Journal||Journal of Power Sources|
|State||Published - 1 Oct 2019|
- Composite anode
- Proton-conducting electrolyte
- Solid oxide fuel cells
- SrCeYO nanofibers
FingerprintDive into the research topics of 'Nano-fibrous SrCe0·8Y0·2O3-Δ-Ni anode functional layer for proton-conducting solid oxide fuel cells'. Together they form a unique fingerprint.
- 2 Finished
Development of All-Thin-Film Integrated Proton-Conducting Solid Oxide Fuel Cells by Pulsed Laser Deposition(2/3)
1/08/19 → 31/07/20
Development of Si-Based and Ge-Based Nanostructured Thermoelectric Bulk Materials(3/3)
1/01/19 → 30/06/20