A Haeussler, S Abanades, A Julbe, J Jouannaux… - Energy, 2020 - Elsevier
Solar thermochemical H 2 O and CO 2 splitting cycles represent an efficient route for converting high temperature concentrated solar heat into valuable chemical energy carriers …
A Haeussler, S Abanades, A Julbe, J Jouannaux… - … Research and Design, 2020 - Elsevier
Thermochemical splitting of H 2 O and CO 2 applying redox materials constitutes a sustainable option for synthetic fuel production and CO 2 valorization. It consists of two-step …
P Furler, J Scheffe, M Gorbar, L Moes, U Vogt… - Energy & …, 2012 - ACS Publications
A solar cavity-receiver containing a reticulated porous ceramic (RPC) foam made of pure CeO2 has been experimentally investigated for CO2 splitting via thermochemical redox …
This review explores the advances in the synthesis of ceria materials with specific morphologies or porous macro-and microstructures for the solar-driven production of carbon …
This work addresses the solar-driven thermochemical production of CO and O 2 from two- step CO 2-splitting cycles, using both ceria granules prepared from cork templates (CG) and …
Developing solar technologies for converting CO2 into fuels has become a great energy challenge, as it closes the anthropogenic carbon cycle and leads to the production of …
A Haeussler, S Abanades, A Julbe, J Jouannaux… - Journal of CO2 …, 2020 - Elsevier
Solar thermochemical cycles offer a viable option for the production of green synthetic fuels from CO 2 and H 2 O. Two-step cycles using redox materials consist of a high-temperature …
A solar reactor consisting of a cavity-receiver containing a reticulated porous ceramic (RPC) foam made of CeO 2 is considered for effecting the splitting of H 2 O and CO 2 via a …
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 …