Among various types of alternative energy devices, solid oxide fuel cells (SOFCs) operating
at low temperatures (300‐600° C) show the advantages for both stationary and mobile …

The proton‐conducting solid oxide electrolysis cell (H‐SOEC) is a promising device that
converts electrical energy to chemical energy. H‐SOECs have been actively studied in the …

Proton-conducting electrolytes with high conductivity and long-term stability, achievable at
low sintering temperatures, are of paramount importance. In this study, we investigate the …

Reliable and economical energy storage technologies are urgently required to ensure
sustainable energy supply. Hydrogen (H< sub> 2) is an energy carrier that can be produced …

Ceramic proton conductors can reduce the operating temperature of solid oxide fuel cells
(SOFCs) to the intermediate temperature range, 400-600° C, due to their higher ionic …

High-temperature proton-conducting materials constitute a unique class of oxide materials,
which are able to exhibit protonic conductivity under hydrogen-containing atmospheres …

Proton conducting ceramics show promise in fuel cells, electrolyzers, permeation
membranes, sensor applications, and membrane reactors. Among several types of materials …

Oxygen-ionic and proton-conducting oxides are an important class of functional materials for
their applications as electrolytes in various high-temperature electrochemical cells, including …

The effects of multiple sintering additives BaO-CuO-B2O3 on the sintering behavior,
microstructure, and electrochemical performance of BaZr0. 1Ce0. 7Y0. 2O3− δ (BZCY) as an …

In this study, the NiO additive was employed as a sintering aid to prepare dense BaZr 0.9 Y
0.1 O 3-δ (BZY10) ceramics for proton ceramic fuel cell (PCFC) and electrolysis cell (PCEC) …