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Mn
Critical Mineral — Transition Metal

Manganese

The next-generation cathode enabler — manganese-rich chemistries are the most promising pathway to high-energy, low-cost batteries with minimal cobalt.

Atomic Number
25
Key Chemistries
BMLMP, NMC
BMLMP vs LFP
+15–20% energy
US Deposits
Montana, Virginia

Role in Lithium-Ion Batteries

Manganese plays multiple roles. In NMC cathodes, manganese contributes structural stability. More transformatively, manganese is central to BMLMP (boron-modified lithium manganese iron phosphate) — C4V's flagship cathode chemistry. BMLMP operates at a higher voltage (~4.0V vs. LFP's ~3.4V), increasing energy density by 15–20% while retaining LFP's safety advantages. BMLMP uses iron and manganese — both available in significant US deposits — rather than expensive cobalt and high-nickel content.

BMLMP: The American bridge chemistry. By combining domestically available manganese and iron with C4V's proprietary boron modification, BMLMP delivers a chemistry with superior performance AND a more achievable domestic supply chain than NMC.

Domestic Supply

The US has identified manganese resources in Montana, Virginia, Minnesota, and Arizona. Allied-nation sourcing from Australia provides a secure near-term pathway while domestic development scales. Building domestic manganese sulfate (MnSO₄) refining capacity is a near-term priority for American BMLMP and NMC cell manufacturing.

Ready to build a traceable American battery supply chain?

Contact The American Battery