Prussian blue, a more than three hundred years old inorganic coordination polymer, has
drawn immense interest in the field of energy conversion. Prussian blue (PB) and Prussian …

The energy crises and environmental pollution are the current main challenges for society.
In this regard, efficient electrochemical energy conversion and storage technologies could …

Electrochemical seawater splitting is a potential approach to producing H2 and O2. As
seawater contains different cations and anions, the direct electrochemical splitting of …

In this study, we developed a nitrate-coordinated iron–nickel hydroxide [NC–FeNi (OH) 2]
catalyst for hydrazine oxidation-assisted seawater splitting. Replacement of O2 evolution by …

Electrocatalytic water splitting has emerged as an innovative technique for producing green
hydrogen fuel. In this regard, a series of electrocatalysts based on Ni and Co have been …

Electrochemical water splitting typically relies on freshwater, a scarce resource in many
regions, limiting its industrial scalability. In contrast, seawater represents an abundant and …

The choice of solid 3D substrates to design electrocatalysts significantly impacts the
efficiency and effectiveness of self-supported electrocatalysts used in water splitting. These …

Recently surface self-reconstruction engineering as an efficient tool has been witnessed
significantly improve the catalytic performance of oxygen evolution reaction (OER) …

Prussian blue analogue (PBA)/metal–organic frameworks (MOFs) are multifunctional
precursors for the synthesis of metal/metal compounds, carbon, and their derived …

Transition metal carbonate hydroxides (TMCHs) and their composites have emerged as a
highly promising material for supercapacitors. These materials possess a multitude of …