- LG Chem Cathode Materials supply begins in 2026
- Next-generation battery materials target future mass production
LG Chem Advances Cathode Material Supply For Next Generation Batteries
LG Chem Ltd announced that it will begin supplying LG Chem Cathode Materials for upgraded 2170 cylindrical batteries in the third quarter of 2026. The products are expected to make a full-scale contribution to sales from the fourth quarter. The company is strengthening its battery material portfolio by supporting evolving cylindrical battery technologies and preparing solutions for future electric vehicle applications. This expansion reflects the growing demand for advanced cathode materials with improved performance, stability and supply chain competitiveness.
For cathode materials used in next-generation 46 mm-diameter cylindrical batteries, LG Chem Ltd is collaborating with customers on product development. The company aims to finalize product specifications in 2026 and begin mass production in 2028. These next-generation cylindrical battery materials are being developed to support future battery platforms requiring higher efficiency, improved energy performance and scalable manufacturing capabilities. The development strategy highlights LG Chem’s focus on maintaining competitiveness in advanced battery material technologies.
Development Of LMR And LFP Cathode Technologies
LG Chem Ltd is also developing lithium manganese-rich (LMR) and lithium iron phosphate (LFP) cathode materials while assessing their economic feasibility. The company is targeting mass production from 2028 onward for these technologies. For LMR cathode materials, LG Chem is focusing on ensuring structural stability in high-voltage environments. For LFP cathode materials, the company aims to establish a competitive supply chain by adopting precursor-free technology and recycled metal feedstock.
The development of advanced cathode materials is aligned with the broader transformation of the global battery industry and increasing requirements for cost efficiency, durability and sustainable material sourcing. South Korea-based LG Chem continues to expand its capabilities across multiple battery chemistry platforms to address different customer requirements. The company’s work on upgraded cylindrical batteries, LMR and LFP materials demonstrates its approach toward supporting future electric mobility and energy storage applications.
LG Chem Cathode Material Development Timeline
| Technology Area | Target Timeline | Development Focus |
|---|---|---|
| Upgraded 2170 Cylindrical Battery Cathode Materials | Q3 2026 Supply Start | Full-scale sales contribution from Q4 2026 |
| 46 mm Cylindrical Battery Cathode Materials | 2026 Specifications, 2028 Production | Next-generation battery development |
| LMR and LFP Cathode Materials | Mass Production From 2028 | Structural stability and competitive supply chain |
LG Chem’s roadmap indicates a continued shift toward diversified battery material solutions with multiple cathode chemistries. The company is combining technology development with supply chain improvements to support future market requirements. By advancing LMR, LFP and cylindrical battery materials, LG Chem is positioning its battery materials business to respond to changing customer needs and increasing demand for next-generation energy storage technologies.
Frequently Asked Questions
When will LG Chem begin supplying upgraded 2170 cylindrical battery cathode materials?
LG Chem will begin supplying cathode materials for upgraded 2170 cylindrical batteries in the third quarter of 2026, with products expected to contribute fully to sales starting from the fourth quarter.
What battery materials is LG Chem developing for future applications?
LG Chem is developing lithium manganese-rich and lithium iron phosphate cathode materials while evaluating economic feasibility. The company is targeting mass production from 2028 onward, focusing on structural stability, precursor-free technology and recycled metal feedstock to build competitive battery material solutions for future applications.
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