Solar thermal water splitting (STWS) produces renewable (or green) hydrogen from water
using concentrated sunlight. Because STWS utilizes energy from the entire solar spectrum to …

Single-atom catalysts with maximum metal utilization efficiency show great potential for
sustainable catalytic applications and fundamental mechanistic studies. We here provide a …

Solar thermal-driven thermochemical H 2 O and CO 2 splitting offers a carbon-neutral path
to produce feedstocks for synthetic fuel production such as hydrogen or synthesis gas. This …

Chemical loo** (CL) represents a versatile, emerging strategy for sustainable chemical
and energy conversion. Designing metal oxide oxygen carriers with suitable redox …

Sustainable hydrogen, produced from renewable sources such as solar or wind, plays a
decisive role in driving industrial decarbonization. Among hydrogen production …

By employing metal oxides as oxygen carriers, chemical loo** demonstrates its
effectiveness in transferring oxygen between reduction and oxidation environments to …

Abstract Solar-driven CO 2/H 2 O splitting via a two-step solar thermochemical cycle is a
promising approach for fuel production and carbon neutrality to address the intermittent …

Solar-driven thermochemical conversion of H 2 O and CO 2 into sustainable fuels, based on
redox cycle, provides a promising path for alternative energy, as it employs the solar energy …

This paper addresses the synergistic effect of binary Ni–Fe sites in double La2NiFeO6
perovskite on low-temperature CO2 conversion to CO in the reverse water–gas shift …

The redox cycle of doped CaMnO3− δ has emerged as an attractive way for cost-effective
thermochemical energy storage (TCES) at high temperatures in concentrating solar power …