Photocatalytic water splitting is the environmentally benign artificial photosynthetic pathway
to dissociate water into hydrogen and oxygen. It provides a great platform for bridging the …

Acceleration of the oxygen reduction reaction at the cathode is paramount in the
development of low-temperature solid oxide fuel cells. At low operating temperatures …

Cobalt‐rich materials have generally been recognized as the prevailing candidates of
cathodes for low‐temperature solid oxide fuel cells (LT‐SOFCs, 400–600° C). Regrettably …

Abstract g-C3N4/Ca2Fe2O5 heterostructures were successfully prepared by incorporating g-
C3N4 into Ca2Fe2O5 (CFO). As prepared g-C3N4/CFO heterostructures were initially …

The use of triple-conducting (electron, proton, oxide ion) cathodes is an effective strategy for
significantly decreasing cathode polarization of proton-conducting SOFCs. In this study, a …

Cobalt-containing perovskite materials have been intensively investigated as bifunctional
oxygen electrodes for solid oxide cells because of their mixed ionic-electronic conducting …

This work focused on the potential effects of different metals (Co/Al/Ni/Ce) on the chemical
looping performance of brownmillerite-structured Ca 2 Fe 2 O 5 for syngas and hydrogen …

Efficient and reliable energy storage systems are necessary to address the intermittency and
variability of renewable energy sources. Thermochemical energy storage (TCES) has …

Abstract Solid Oxide Fuel Cells at intermediate operating temperatures require high catalytic
activity and compatibility of cathode material with electrolyte to reduce interfacial polarisation …

Abstract Ca2Fe2O5 (CFO) is a potentially viable material for alternate energy applications.
Incorporation of nitrogen in Ca2Fe2O5 (CFO-N) lattice modifies the optical and electronic …