Hydrogen is a clean, versatile, and energy-dense fuel that has the potential to play a key
role in a low-carbon energy future. However, realizing this potential requires the …

Ion-conducting ceramic membrane reactors offer an opportunity to combine membrane
separation processes directly with chemical reactions, leading to process intensification and …

Splitting CO 2 with a thermochemical redox cycle utilizes the entire solar spectrum and
provides a favorable path to the synthesis of solar fuels at high rates and efficiencies …

Because of the increasing demand for energy and the associated rise in greenhouse gas
emissions, there is much interest in the use of renewable sources such as solar energy in …

Intermediate temperature membrane-supported CO 2 thermochemical reduction using
renewable energy is a clean approach for reusing CO 2. To implement this technology at …

An oxygen-permeable membrane reactor, capable of high-performance water splitting and
simultaneous methane conversion while maintaining the syngas ratio (H 2/CO) close to 2, is …

This work demonstrates and assesses the concept of in situ catalyst exsolution in ceramic
membrane reactors for the co-production of carbon monoxide (CO) and syngas through …

We report on the first ever experimental demonstration of simultaneous thermolysis of CO2
and H2O with in situ separation of fuel and oxygen in a solar-driven membrane reactor …

Mixed ionic and electronic conducting (MIEC) perovskite oxides (ABO3) have a substantial
role in carbon-neutral clean energy conversion and storage technologies. Owing to their …

CO 2 single-step thermolysis was achieved using oxygen permeable MIEC (mixed ionic-
electronic conducting) membranes made of ceria for separate production of CO on the feed …