Earth-abundant, environmentally friendly, and cost-effective
High surface chemical reactivity and versatility
Lewis base characteristics for electron-rich platform
Facilitates nucleation and growth of catalytic microstructures
Promotes morphological refinement and enhanced adsorption/decomposition
Uniform thin-film deposition via atomic layer deposition (ALD)
[1]
Strong basic sites
High surface area when supported (e.g., MgO/MgAl₂O₄)
Good reusability and structural stability
[2]
Functional interlayer on carbon cloth for directing catalyst growth
Heterointerface in self-supporting electrodes for improved electron transfer
Enhancement of electrocatalytic efficiency in GOR-assisted water splitting
Applications across electrocatalytic reactions (e.g., in healthcare, energy sectors)
[1]
Heterogeneous catalyst for biodiesel transesterification
Component of bifunctional catalysts for esterification and transesterification
[2]
Classification by use
Chemicals used as interlayers or supports in electrocatalysts
Chemicals used in surface modification and nucleation platforms
[1]
Chemicals used as solid base catalysts
Chemicals used in biodiesel production
Chemicals used in industrial catalysis
[2]
A trustworthy factory and manufacturer
[Cite:1] Morphological and electronic engineering of Co(OH)2/Ce(OH)3 electrocatalyst on ALD-enabled MgO modified carbon cloth electrode for glucose oxidation-coupled water splitting, Chemical Engineering Journal Advances, Volume 25, March 2026, 100968
[Cite:1] Sustainable inorganic nanocatalysts in biodiesel production - A review on recent developments, Fuel Processing Technology, Volume 282, April 2026, 108406