Fabio L. Bargardi

Graphical Abstract Redox Splitting of CO2 Solar fuels are produced from CO2 and H2O via a thermochemical redox cycle using concentrated solar radiation. In article 2300452, Steinfeld, Studart, and co-workers produced solar fuels from CO2 and H2O via a thermochemical redox cycle using concentrated solar radiation. The solar reactor contains a structure, made of ceria, which serves the functions of solar absorber and redox material.

1 Introduction Renewable drop-in fuels for the transportation sector can be produced from CO2 and H2O via a thermochemical redox cycle using concentrated solar energy.[1] Ceria (CeO2) has emerged as an attractive redox material because of its rapid kinetics and crystallographic stability.[2] The ceria-based redox cycle is represented by: Reduction : Ce O 2 → Ce O 2 − δ + δ / 2 O 2 $$\begin{eqnarray} \hspace*{7.2pc}{\mathrm{Reduction}:\, \mathrm{Ce}{\mathrm{O}}_{2}\to...

Publisher Correction: Architectured ZnO–Cu particles for facile manufacturing of integrated Li-ion electrodes Correction to: Scientific Reports https://doi.org/10.1038/s41598-020-69141-5, published online 24 July 2020 This Article contains errors in Figure 4 due to a technical issue. In panel (c) the axes and markers for each material are omitted, in panel (e) the graph data for the long-term cycling test is omitted, and in panel (f) the labels are incomplete.