Hydrogen is an essential energy carrier which will address the challenges posed by the
energy crisis and climate change. Photoelectrochemical water splitting (PEC) is an important …

Semiconductor photoelectrochemistry is a powerful means for efficient conversion of solar
energy to chemical fuels. Practical implementation of this promising technology has been …

Photoelectrocatalytic solar water-splitting systems em-ploy a semiconductor (SC) light
absorber, which generates a photovoltage when illuminated, coupled to metal nanoparticle …

Semiconductor photocatalyst particles convert solar energy to fuels like H2. The particles are
often assumed to provide crystalline-facet-dependent electron–hole separation. A common …

Development of a robust photocathode using low-cost and high-performing materials, eg, p-
Si, to produce clean fuel hydrogen has remained challenging since the semiconductor …

The current efficiency records for generating green hydrogen via solar water splitting are
held by indium phosphide (InP)‐based photo‐absorbers, protected by TiO2 layers grown …

Here is a demonstration of constructing MoSSe/CdSSe heterojunction catalyst from
bimetallic selenium sulfides. CdSSe has a high conduction band position of− 0.65 eV …

Renewable (“green”) hydrogen production through direct photoelectrochemical (PEC) water
splitting is a potential key contributor to the sustainable energy mix of the future. We …

In the next few decades hydrogen will undoubtedly serve as a major source of clean energy.
The ability of hydrogen fuel to reduce humanity's carbon footprint has led to the …

Metal oxide semiconductor-based gas sensors often require noble metals for modification to
enhance the carrier mobility of the material. However, current noble metal modifications are …