Abstract
Development of methodologies for fabrications of nanostructured materials that provide control over their microstructural features and compositions represents a fundamental step in the advancement of technologies for productions of materials with well-defined functional properties. Pulse electrolysis, a top-down electrochemical approach, has been demonstrated to be a viable method for producing nanostructured materials with a particular efficacy in the synthesis of tin oxides. This method allows for significant control over the composition and shape of the resulting tin oxides particles by modifying the anionic composition of the aqueous electrolyte, obviating the need for additional capping agents in the synthesis process and eliminating the requirement for high-temperature post-treatment. The composition and microstructural characteristics of these oxides are found to be contingent upon the differing stabilities of tin fluoride and chloride complexes, as well as the distinct mechanisms of interaction between chloride and fluoride anions with an oxidized tin surface, which is influenced by the varying kosmotropic/chaotropic nature of these anions. The composition and microstructural characteristics of the obtained dispersed tin oxides would thus determine their potential applications as an anode material for lithium-ion batteries, as a photocatalyst, or as an oxyphilic component of a hybrid support for a platinum-containing electrocatalyst.
Graphical Abstract
Keywords
Tin oxide, Pulse electrolysis, Lithium-ion batteries, Photocatalysis, Fuel cell
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 International License.
Publication Date
2025-01-28
Online Available Date
2024-11-14
Revised Date
2024-10-14
Received Date
2024-08-26
Recommended Citation
Alexandra Kuriganova, Nina Smirnova.
New Insights into Controlling the Functional Properties of Tin Oxides-Based Materials[J]. Journal of Electrochemistry,
2025
,
31(1): 2408261.
DOI: 10.61558/2993-074X.3509
Available at:
https://jelectrochem.xmu.edu.cn/journal/vol31/iss1/2