Chemistry & Cell Components
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Text on page 123
Chemistry & Cell Components
LCO | Technology
LCO | Technology
Pros and Cons of Lithium Cobalt Oxide (LCO) vs. Nickel Manganese Cobalt (NMC) S LCO Strength - Energy density - Higher Voltage capability (up to 4.5) - Power - More Mature Technology than other cathode chemistries - Highest recycle value NMC Strength - Energy density - Low temperature performance - Power - Strong battery supply chain - High recycle value
LCO Weakness
LCO Opportunity
LCO Threat
Lower Thermal Stability temperature
Low discharge current can lead to pack overheat
limited to a C rates due to overheating
shorter life span
Highest cobalt use
Cobalt cost and scarcity
Portable and consumer electronics
Industries that want 10+ years of reliability data
High recycle Value in domestic industry
High Energy NMC811 and NCA for high performance
High-voltage LMNO
Increasing material cost of cobalt
NMC Weakness
Cost
Safety
Ni/Co supply chain
NMC Opportunity
Long range/ high-end EVs
Stationary storage
e-Bus, e-Bicycle, e-Motorcycle
Power tools / performance sensitive applications
Source: LCO Overview, LFP Pros and Cons, LCO vs LFP, LCO Life Cycle, Congo’s Cobalt Controversy,
NMC Threat
LFP
High-voltage LNMO due to cost and thermal stability
Increasing raw material cost
Lithium Cobalt Oxide batteries (LCO) have a relatively high cobalt content, which provides the high energy density and thermal stability for which they are known for. LCO has a relatively high voltage capability. The EV industry has long since shifted away from LCO, due to the cost of cobalt in the past. However, smartphones, laptops, and other portable electronics depend heavily on LCO.
Extracted from the PDF; charts and images may read imperfectly.
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