Over-sintered fine particles in a bimodal cathode blend improve rolling density while reducing particle breakage, gas generation, and heat aging.
Chemically linked liquid metal encapsulates replace elastomer carriers to restore conductivity under strain and support repeatable power delivery.
Precise La and transition metal ranges in garnet solid electrolytes limit impurity-driven electron conduction while maintaining ion transport.
Replacing sulfur with Cl or Br in a Li-Zr-Y-W solid electrolyte preserves high lithium-ion conductance without hydrogen sulfide generation.
Core-shell aluminum phosphate protects cobalt ions from reduction, enabling stable cobalt (IV) oxide formation for high-performance lithium ion batteries.
Gradient barium distribution in perovskite proton conductor solid electrolyte layers suppresses corrosion and improves durability under humid conditions.
Optimizing nickel content within the cathode lattice stabilizes structural integrity while utilizing oxygen redox to boost charge capacity.
Liquid metal encapsulate networks preserve conductivity under strain, enabling reliable AC signal and power control without failure.
Element substitution in Bi-M-Cu-O materials scatters phonons to reduce thermal conductivity while maintaining high electrical conductivity.
An AlOxNy darkening pattern layer reduces light reflection and glare from conductive electrodes, improving visibility without increasing device complexity.
A thin-film proton conducting electrolyte uses a transient metal gradient to suppress gas and electron leaks.
A semiconductive ceramic sintered compact with a segmented grain boundary structure provides high electrical conductivity.