Abstract:
Co3O4 nanoparticles synthesized by solution combustion synthesis present a
versatile platform for the development of porous nanostructures with tunable morphology
and physicochemical properties. Synthesis conditions and parameters such as fuel type;
fuel-to-oxidizer ratio and temperature control lead yielding; and Co3O4 NPs with fine particle size, surface area, and porosity result in enhancing their electrochemical and catalytic
capabilities. This review evaluates present studies about SCS Co3O4 NPs to study how
synthesis parameter modifications affect both surface morphology and material structure
characteristics including porosity features, which make their improved performance ideal
for lithium-ion batteries and supercapacitors. Moreover, the integration of dopants with
carbon-based hybrid composites enhances material conductivity and stability by addressing both capacity fading and low electronic conductivity concerns. This review mainly aims
to explore the significant relation between fundamental material design principles together
with practical uses and provides predictions about future research advancements that aim
to enhance the performance of Co3O4 NPs in next-generation energy and environmental
technology applications.
