Solid oxide cells are an exciting technology for energy conversion. Fuel cells, based on solid
oxide technology, convert hydrogen or hydrogen-rich fuels into electrical energy, with …

Over the past decades, considerable efforts have been made to develop hierarchically
porous electrodes for the high surface area, the fast velocity of fuels/products to/away from …

Solid oxide fuel cells are able to convert fuels, including hydrocarbons, to electricity with an
unbeatable efficiency even for small systems. One of the main limitations for long-term …

In electrochemical devices such as solid oxide cell stacks, many physical phenomena are
interacting on many different length scales in an intricate geometry. Modeling is a strong tool …

In state-of-the-art, anode-supported, solid oxide fuel cells (SOFC) the fuel electrode is made
of two different porous Ni/stabilized zirconia layers, both with specified phase compositions …

Reversible solid oxide cells (r-SOCs) are regarded as a solution form of clean energy
generation towards a green hydrogen energy transition. However, during transportation …

Further development and upscaling of the Solid Oxide fuel and electrolysis Cell (SOCs)
technologies would significantly benefit from improvement of their mechanical robustness. In …

Mechanical performance analysis is important for ensuring the long-term reliability of solid
oxide fuel cells (SOFCs). Thermal-mechanical models are constructed to conduct time …

Abstract 3YSZ specimens with variable open porosity (1–57%) were fabricated, and the
stiffness, strength and fracture properties (fracture toughness and R-curve) were measured …

Abstract Solid Oxide Fuel Cells are subjected to significant stresses during production and
operation. The various stress-generating conditions impose strength requirements on the …