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Control of A Running H2/02 Fuel Cell With Filled Polymeric Membranes by IMPEDANCE SPECTROSCOPY

Published online by Cambridge University Press:  10 February 2011

C. Poinsignon ,
B Le gorrec ,
G. Vitter ,
C. Montella  and
J. P Diard
C. Poinsignon
Affiliation:
LEPMI-ENSEEG Domaine Universitaire BP 75 F- 38402 St Martin d′Hères Cedex, poinsign@inpg.fr
B Le gorrec
Affiliation:
LEPMI-ENSEEG Domaine Universitaire BP 75 F- 38402 St Martin d′Hères Cedex, poinsign@inpg.fr
G. Vitter
Affiliation:
LEPMI-ENSEEG Domaine Universitaire BP 75 F- 38402 St Martin d′Hères Cedex, poinsign@inpg.fr
C. Montella
Affiliation:
LEPMI-ENSEEG Domaine Universitaire BP 75 F- 38402 St Martin d′Hères Cedex, poinsign@inpg.fr
J. P Diard
Affiliation:
LEPMI-ENSEEG Domaine Universitaire BP 75 F- 38402 St Martin d′Hères Cedex, poinsign@inpg.fr
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Abstract

Performances of a H2/O2 polymeric electrolyte fuel cell running at 80°C under 3 bars of gas pressure and using a new filled thermostable ionomeric membrane [sulfonated polysulfone (SPS) filled with phosphatoantimonic acid particles] are analysed with a recent experimental method established for impedance measurements of electrochemical batteries during discharge. A classical impedance-measurement set controls under sinusoidal current perturbation a PEMFC connected in parallel to the load into which it discharges. The impedance diagrams present at high frequencies an inductive behaviour analogous to that observed for batteries, one or two capacitive arcs. The internal resistance of the PEMFC can be estimated. The results demonstrate the possibility to study with classical equipment the impedance of high-capacity and low-impedance FC during their discharge through a constant load.

Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 575: Symposium CC – New Materials for Batteries & Fuel Cells , 1999 , 273
Copyright
Copyright © Materials Research Society 2000

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References

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