Autor(es): Mikhalev, S. M. ; Julião, Paulo S.B. ; Loureiro, F. J.A. ; Shaula, A. L. ; Fagg, D. P.
Data: 2021
Origem: Nanomaterials Science & Engineering
Assunto(s): Fuel cells; Alloy melts; Polarization resistance; High-temperature electrochemistry
Autor(es): Mikhalev, S. M. ; Julião, Paulo S.B. ; Loureiro, F. J.A. ; Shaula, A. L. ; Fagg, D. P.
Data: 2021
Origem: Nanomaterials Science & Engineering
Assunto(s): Fuel cells; Alloy melts; Polarization resistance; High-temperature electrochemistry
The electrochemical behaviour of antimony-lead melt on saturation with oxygen was studied to assess further prospects of such melts as anode materials for high-temperature fuel cells. A perovskite ceramic was used as a robust current collector material. The related mechanisms of alloying and phase segregation were revealed at different melt oxidation levels using combined impedance spectroscopy and thermodynamic analysis.