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

Photocatalytic technology with sunlight as driving force can convert solar energy into other
energy sources for storage and further use. Cadmium sulfide (CdS), as a typical reducing …

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

Photocatalytic hydrogen production is enchanting in solar energy utilization. And
mechanism elucidation in interfacial electron transfer rate is a prerequisite for performance …

Developing novel nanostructures to enhance the efficiency of solar-tochemical conversion
through integrated photocatalytic hydrogen (H 2) evolution and organic transformation holds …

Photocatalytic water splitting coupled with selective organic oxidation can simultaneously
produce clean H 2 fuel and value-added chemicals by effective utilization of photoexcited …

The conversion from solar energy into storable chemical energy can be achieved through
synergistic coupling of photocatalytic H 2 production and organic synthesis, during which …

Solar-powered semiconductor photocatalysis is considered a powerful strategy for
addressing environmental pollution and energy crisis. Nevertheless, the separation and …

In addition to the electron transfer, the appropriate H-adsorption affinity of active centers on
the metal cocatalyst surface is quite important for high hydrogen-production activity of …

Electron spinning polarization has now attracted extensive attention due to its significant
effect on improving catalysis. However, only a few photocatalysts possess the electron …