The splitting of water through electrocatalysis offers a sustainable method for the production
of hydrogen. In alkaline electrolytes, the lack of protons forces water dissociation to occur …

As a clean and renewable energy carrier, hydrogen (H2) has become an attractive
alternative to dwindling fossil fuels. The key to realizing hydrogen-based energy systems is …

Developing efficient, novel and pH-universal electrocatalysts toward hydrogen evolution
reaction (HER) is a challenging and meaningful task for the large-scale and practical …

Water electrolysis is an ideal method for industrial green hydrogen production. However,
due to increasing scarcity of freshwater, it is inevitable to develop advanced catalysts for …

To realize highly efficient and stable hydrogen production at high current densities, more
efforts are devoted to developing outstanding water-splitting electrocatalysts. Herein …

The rational design of advanced nanohybrids (NHs) with optimized interface electronic
environment and rapid reaction kinetics is pivotal to electrocatalytic schedule. Herein, we …

Heterointerfaces can adjust the adsorption energy with intermediates in the transition state
for a much decreased kinetics energy barrier (E a). One typical transition metal phosphide …

Electronic structure optimization and architecture modulation are widely regarded as rational
strategies to enhance the electrocatalysts catalytic performance. Herein, a hybridization of …

Hydrogen is emerging as an alternative clean fuel; however, its dependency on freshwater
will be a threat to a sustainable environment. Seawater, an unlimited source, can be an …

Exploring highly active earth-abundant bifunctional electrocatalysts for water splitting at a
high output is essential for the forthcoming hydrogen economy. Non-noble Fe 3 O 4 catalyst …