Patent Portfolio

Patent No. 570634

This patent focuses on improving the power density of sodium-ion batteries through strategic optimization of electrode thickness. By combining both thick and thin electrode regions within the same cell, the design balances energy storage capacity with rapid charge and discharge capability. Thicker sections enable higher energy storage, while thinner regions reduce ion transport resistance and allow faster kinetics. This approach addresses the traditional tradeoff between energy and power, resulting in sodium-ion cells with improved performance across a wide range of applications.

Patent No. 580344

The Dual Active Material System (DAMS) introduces a novel electrode design that integrates a primary active material with a complementary additive active material. This combination leverages the strengths of each component, such as high energy density from one material and strong rate capability or stability from the other, to create a synergistic effect. By engineering how these materials interact, DAMS enables improved battery performance including higher power delivery, longer cycle life, and greater efficiency compared to single-material systems.

Patent No. 582459

This patent presents a materials engineering approach that increases both the power and energy density of a battery cell without adding weight or mass. By optimizing the composition and structure of active materials at the microscopic level, the design improves ion transport, electrical conductivity, and material utilization. The result is more efficient use of existing material volume, enabling higher performance without changes to size or weight.

Patent No. 19/066,070

This innovation improves battery performance through advanced cell architecture design. By tweaking the internal structure and layout of the cell, the design enhances ion and electron pathways, reduces internal resistance, and improves overall efficiency. This approach delivers gains in both power and energy density without increasing the cell's weight or footprint, making it well suited for high-performance and space-constrained applications.