Semiconductor photocatalytic technology holds immense promise for converting sustainable
solar energy into chemically storable energy, with significant applications in the realms of …

As an ideal secondary energy source, hydrogen has the title of clean energy and the product
of its complete combustion is only water, which is not polluting to the environment …

The development of easily recyclable and advanced photosystems is a promising strategy
for achieving sustainable water decontamination in industrial applications. In this study, a …

The photoabsorption capacity, the number of active sites, and the efficiency of carrier
separation of photocatalysts are the main factors that restrict photocatalytic activity …

CuInS 2 quantum-dot (CIS QD)-modified gC 3 N 4 (CN) catalysts (CIS/CN) were prepared
with the aid of an in-situ growth process. The as-obtained photocatalysts were explored by …

Photocatalytic technologies have been universally applied in the domains of hydrogen
production, environmental purification, CO 2 reduction, catalytic organic synthesis, and other …

Exploring photocatalysts to promote the conversion of CO2 to valuable chemical fuels is a
highly promising approach for mitigating energy scarcity and environmental pollution. Lead …

Recently, S-scheme heterojunctions have gained considerable attention in the field of
photocatalytic environmental remediation as their potential to achieve efficient spatial …

Artificial photosynthesis enables direct solar‐to‐chemical energy conversion aimed at
mitigating environmental pollution and producing solar fuels and chemicals in a green and …

The inorganic–organic S-scheme heterojunction photocatalyst demonstrates exceptional
light absorption capacity, high photogenerated charge separation efficiency, and remarkable …