Photoelectrochemical (PEC) water splitting is a promising technology for solar hydrogen
production to build a sustainable, renewable and clean energy economy. Hematite (α …

Photocatalysis has been attracting much research interest because of its wide applications
in renewable energy and environmental remediation. There are many materials that are …

The advancement of heterostructured visible-light active metal oxide based semiconductor
photocatalysts have received an enormous consideration in the field of environmental …

High-temperature activation has been commonly used to boost the photoelectrochemical
(PEC) performance of hematite nanowires for water oxidation, by inducing Sn diffusion from …

One of the major challenges in photoelectrochemical water splitting is to develop an efficient
photoanode that can oxidize water at low applied potential. Herein, a codoped (Sn, Zr) α …

One of the crucial challenges to enhance the photoelectrochemical water‐splitting
performance of hematite (α‐Fe2O3) is to resolve its very fast charge recombination in bulk …

Photoelectrochemical (PEC) water splitting is considered a prospective and attractive way to
transforming solar energy to hydrogen (H 2). Hematite (α-Fe 2 O 3) is an n-type …

Hematite (α-Fe2O3) is a widely investigated photocatalyst material for the oxygen evolution
reaction, a key step in photoelectrochemical water splitting. Having a suitable band gap for …

The search for earth-abundant materials that can be used in solar water splitting cells
remains an important goal for affordable and environmentally friendly methods for energy …

Hematite (Fe2O3) is a well-known oxide semiconductor suitable for photoelectrochemical
(PEC) water splitting and industry gas sensing. It is widely known that Sn doping of Fe2O3 …