Yonglei Xin, Likun Xu
The RuO2-IrO2-SnO2/Ti anodes were prepared using a sol–gel technique to explore their deactivation mechanisms under alternative current electrolysis conditions. Characterization methods including SEM, EDX, and XRD confirmed that a rutile structured RuO2–IrO2–SnO2 solid solution was achieved post-pyrolysis. Notably, upon deactivation, the solid solution structure and its active components were nearly absent. Electrochemical assessments revealed a reduction in the active area and an increase in coating resistance, attributed to the active components detaching from the anode surfaces. The investigation suggests that the degradation of the oxide anodes primarily results from the detachment of active components during alternative current electrolysis. This study provides crucial insights into the longevity and performance degradation of oxide-coated titanium anodes in marine applications and highlights areas for improvement in the resistance to electrolysis-induced degradation.
@article{4dae91cd-4a5b-454e-b29b-eeef2d9fa76e,
title={The Deactivation Mechanism of RuO 2 IrO},
author={Yonglei Xin and Likun Xu},
year={2026},
language={en}
}TY - JOUR TI - The Deactivation Mechanism of RuO 2 IrO AU - Yonglei Xin AU - Likun Xu PY - 2026 LA - en ER -
This paper addresses the challenge of assessing the feasibility of wind power plant projects at sites with insufficient or no local historic wind data
Important advances in electrochemical engineering technology over the last three decades have fostered the development of a lternative methods to alle
Increasing volumes of waste printed circuit boards from obsolete electronic equipment posed escalating environmental risks and resource losses due to
The leachability tests for manufacturing scrap TV boards (STVB) have indicated the release of metals beyond the limit levels with potential problems f