Global Lithium Consumption by Application (2026)

Application Consumption (kt LCE) Market Share Growth Rate (CAGR)
Batteries 780 82% 25%
- EVs 580 61% 28%
- Energy Storage 120 13% 35%
- Consumer Electronics 80 8% 5%
Ceramics & Glass 76 8% 3%
Lubricating Greases 38 4% 2%
Other Industrial 56 6% 4%

Battery Applications (82% of demand)

Electric Vehicle Batteries

Cathode Chemistry Requirements

Battery Pack Specifications

Vehicle Type Battery Size Li Content (LCE) Chemistry
Compact EV 40-60 kWh 5-8 kg LFP
Mid-size EV 60-80 kWh 8-11 kg NMC 622
Premium EV 80-120 kWh 11-16 kg NMC 811/NCA
Electric Bus 250-400 kWh 35-55 kg LFP
Electric Truck 500-1000 kWh 70-140 kg LFP/NMC

Energy Storage Systems (ESS)

Grid-Scale Storage

Commercial & Industrial (C&I)

Residential Storage

Ceramics & Glass (8% of demand)

Glass Manufacturing

Container Glass

Glass Ceramics (Cooktops)

Specialty Glass

Ceramics

Continuous Casting Mold Flux

Ceramic Glazes & Enamels

Lubricating Greases (4% of demand)

Lithium Complex Greases

Applications

Performance Advantages

Other Industrial Applications (6% of demand)

Air Treatment

CO₂ Absorption

Aluminum Production

Pharmaceuticals

Polymers & Rubber

Emerging Applications

Solid-State Batteries

Nuclear Fusion

High-Temperature Batteries

Recycling & Circular Economy

Battery Recycling

Process Scrap Recovery

Procurement Strategy

Industrial users should secure 60-70% needs via long-term contracts, 20-30% spot purchases for flexibility, and maintain 2-3 month strategic inventory during price volatility.

Quality Considerations

Battery applications require 99.5% minimum purity. Even trace contaminants (Fe, Na, SO₄) affect performance. Always verify CoA from ISO-certified labs.

Substitution Risk

Sodium-ion batteries emerging for stationary storage but 30% lower energy density. No viable lithium substitute for high-performance EV batteries before 2035.