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 …

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 …

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 thermodynamic analysis was conducted on a solar thermochemical plant for syngas
generation via H 2 O/CO 2-splitting redox cycles in order to determine the performance of six …

Thermochemical splitting of CO2 and H2O via two‐step metal oxide redox cycles offers a
promising approach to produce solar fuels. Perovskite‐type oxides with the general formula …

Solar isothermal thermochemical splitting of CO2 by oxides such as CeO2 to generate CO
has been reported in the literature. With CeO2, isothermal CO2 splitting occurs at 1773 K …

Since 2006, ceria is used as a redox reactive material for production of H 2, CO, and syngas
via a two-step solar driven thermochemical H 2 O/CO 2 splitting cycle. Different forms of …

Solar thermochemical conversion of H2O and captured CO2 is considered for the production
of high-value solar fuels and CO2 valorization, using nonstoichiometric oxygen-exchange …

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 …

Efficient heat transfer of concentrated solar energy and rapid chemical kinetics are desired
characteristics of solar thermochemical redox cycles for splitting CO2. We have fabricated …