Graphical abstract. Credit: Journal of Applied Electrochemistry (2024). DOI: 10.1007/s10800-023-02064-x

SUNY Polytechnic Institute (SUNY Poly) Associate Professor of Electrical and Computer Engineering Technology Dr. Iulian Gherasoiu and peers have published research in the Journal of Applied Electrochemistry titled "MoVN-coated MoNi4-MoO2 nanorods as a bifunctional electrode for electrochemical water splitting."

The emerging need for clean and renewable energy drives the exploration of effective strategies to produce , Gherasoiu explains. With the assistance of highly active, non-noble metal electrocatalysts, electrolysis of water is a promising candidate to generate pure hydrogen with .

However, this reaction takes place almost exclusively on Pt/C catalysts at the which is expensive and needs to be replaced by a metal-based catalyst that is cost effective and can show a comparable HER () activity.

This research uncovers the properties of cost-effective MoVN/MoNi4-MoO2 nanorods that are synthesized using a two-step facile hydrothermal method.

The electrodes having high specific electrochemical surface area, low overpotential for both half-cell reactions (HER and OER), and negligible degradation, performed exceptionally well providing a competitive path to the fabrication of low-cost and highly effective electrodes, as a potential replacement for Pt-based electrodes, for application in commercial electrolyzers.

More information: Yamini Kumaran et al, MoVN-coated MoNi4-MoO2 nanorods as a bifunctional electrode for electrochemical water splitting, Journal of Applied Electrochemistry (2024). DOI: 10.1007/s10800-023-02064-x

Provided by Colleges of Nanoscale Science and Engineering