Photoelectrochemical (PEC) water splitting provides a promising approach to convert solar
energy into hydrogen. Developing active, stable, and cost‐effective semiconductors …

Nitride alloys are considered potential candidates as photoelectrodes for
photoelectrochemical water splitting. Here we show an In0. 25Ga0. 75N layer activated by …

We present a basic, comprehensive study of the electrocatalytic activity of epitaxial
InN/InGaN quantum dots (QDs) by cyclic voltammetry, electrochemical impedance …

A review is given of the exceptional electrochemical performance of epitaxial InN/InGaN
quantum dots (QDs) as photoelectrodes for solar hydrogen generation by water splitting, as …

To split water and produce hydrogen by white light is an excellent solution for the storage
and supply of clean and sustainable energy. Efficiency and stability are the key challenges …

InN/InGaN quantum dots (QDs) are introduced as an efficient photoanode for a novel abiotic
one-compartment photofuel cell (PFC) with a Pt cathode and glucose as a biofuel. Due to …

In the current chapter we discuss the importance of plasmonics for photoelectrochemical
water splitting. A survey through plasmonics, the underlying theoretical background, and an …

We report on the bottom-up fabrication, by plasma-assisted molecular beam epitaxy, of
monocrystalline GaN solid, hollow, and c-shape nanowires deposited in a compact fashion …

Abstract Epitaxial InN quantum dots (QDs) on In-rich InGaN, applied as an electrochemical
electrode, activate Cl−-anion-selective surface attachment, bringing forth faradaic …

Renewable energy is highly demanded for sustainable lifeform. Current society is being
more and more conscious of the limitations and future impacts of current energy usage. All …