Research and Development

Cathode Development:
Transition from LFP to LMFP

Increase Voltage and Energy Density:

LMFP batteries offer higher voltage (3.7v vs 3.3v) and energy density due to manganese incorporation, enhancing their suitability for high-energy applications.

Enhance Cost-Effectiveness:

Manganese's abundance and affordability make LMFP batteries a more cost-effective choice compared to other high-energy battery chemistries.

Maintain Safety and Stability:

Despite their higher energy density, LMFP batteries preserve the safety, thermal stability, and longevity traits of LFP batteries, making them ideal for long-life applications such as stationary energy storage.

Anode Development:
Integrating Silicon
with Graphite

Enhance Energy Storage Capacity:

Leveraging silicon's high capacity to significantly increase the total energy storage of the battery.

Mitigate Volume Expansion:

Using graphite's structural integrity to buffer and accommodate silicon's volume changes during charge and discharge cycles, thereby enhancing longevity and performance.

Improve Electrical Conductivity:

Maintaining efficient electron transport within the anode material to ensure high performance across a range of applications.

Electrolyte Development:
Quasi-solid-state-electrolyte

Merge Benefits for Safety and Stability:

Quasi-solid-state electrolytes combine the advantages of liquid and solid electrolytes to enhance safety and stability.

Enable Compact, Powerful Batteries:

These electrolytes support more compact, powerful batteries by improving energy density and reducing risks like leakage and flammability.

Drive Innovation in Battery Technology:

This innovation is crucial for developing safer, more efficient batteries for future technologies.