Lithium Phosphate Electrode Conductivity via Nanoparticle Support

The patent applies parameter changes by precisely controlling the particle size of lithium phosphate compound particles to be 35 nm or less, and controlling the crystallite size to be 5 nm or less. This specific parameter control resolves the contradiction by achieving superior electrical conductivity and battery characteristics while maintaining feasibility through hydrothermal synthesis method.

The patent uses composite materials by combining lithium phosphate compound particles with carbon materials in the positive electrode. This composite structure enhances electrical conductivity and improves battery characteristics, resolving the contradiction between particle size control complexity and performance improvement.

The patent changes physical parameters by reducing particle size to 35 nm or less and crystallite size to 5 nm or less, which increases surface area and improves electrical conductivity while maintaining high energy density through efficient lithium ion insertion/extraction.

The patent utilizes porous structures created by the fine particle size distribution and controlled crystallinity to enhance both energy density and electrical conductivity, allowing efficient ion transport while maintaining high capacity.

The patent applies parameter changes by controlling particle size (35 nm or less) and crystallite size (5 nm or less), which significantly improves charge capacity retention rate while the hydrothermal synthesis method maintains manufacturing simplicity.

The patent applies local quality by creating uniform fine particle distributions and controlled crystallinity throughout the positive electrode material, ensuring consistent electrochemical performance and high capacity retention across the entire battery.