荷兰海牙战略研究中心-电池需要电池矿物，欧洲是否应该加大努力确保电池矿物的安全？（英文）-2021.4-16页_3mb

Summary of HCSS Geo-economics: "Batteries require battery minerals, should Europe ramp up its efforts to secure them?"

Core Content

The article discusses the importance of securing a stable supply of battery minerals for the European Union (EU) to achieve its ambitious goals in the electric vehicle (EV) market, particularly in the context of the Paris Climate Agreement and the EU Green Deal. It emphasizes the need for Europe to not only invest in battery manufacturing (gigafactories) but also in the upstream and midstream segments of the lithium-ion battery (LiB) supply chain, including mining, refining, and chemical processing of battery minerals.

Main Points

1. EU's EV Ambitions and Battery Cost

• The EU aims to sell 10 million EVs by 2030, which requires significant growth in battery production.
• Battery cells and packs account for 30-40% of a BEV’s production cost.
• LiB prices need to drop below $100/kWh to enable BEVs to compete with internal combustion engine (ICE) vehicles.
• NMC 811 batteries are currently the most common, with high Nickel and low Cobalt content, offering better energy density and lower price risk than high Cobalt alternatives.

2. Battery Cell Composition and Cost Drivers

• The cathode is the most expensive component, accounting for more than 50% of the LiB cell cost.
• Cathode materials include Lithium, Nickel, Cobalt, Manganese, and others, with Nickel being the most significant cost driver due to its high usage and price volatility.
• Anode materials are primarily Graphite (synthetic and natural), and chemical processing is crucial to achieving the required purity levels for battery components.

3. Battery Chemistry and Market Trends

• Three main cathode chemistries are used in BEVs: NMC, NCA, and LFP.
  • NMC (Nickel Manganese Cobalt): High energy density, fast charging, and decreasing Cobalt content.
  • NCA (Nickel Cobalt Aluminium Oxide): High energy density and performance in extreme temperatures, but more expensive.
  • LFP (Lithium Iron Phosphate): Low cost, long cycle life, and stable performance, but lower energy density.
• LFP is gaining traction, especially in lower-cost markets like the Mediterranean, due to its affordability and sustainability profile.
• The IP for LFP technology is set to expire in 2022, which could lead to increased adoption and innovation in this chemistry.

4. Supply Chain Risks and Price Sensitivity

• Price hikes in battery minerals like Nickel and Cobalt could significantly increase LiB costs and, consequently, BEV prices.
• A 36.5% increase in LiB cell cost could result in a $3,000 increase in BEV price, making them less competitive with ICE vehicles.
• China currently dominates the LiB supply chain, particularly in the production of cathode active materials (CAM) and battery cells.
• Europe lacks Lithium refining and chemical processing capabilities, making it heavily dependent on imports.

5. Policymaker Strategies to Mitigate Price Risks

• Diversification is key to reducing dependency on a single supplier or mineral.
• Diversification of investments: Europe needs to invest in upstream (mining) and midstream (processing) projects to secure a steady supply of battery minerals.
• Diversification of materials: Encouraging the use of low Cobalt and high Nickel/Manganese chemistries can reduce exposure to volatile prices.
• Diversification of sources: Europe should seek partnerships in countries like Indonesia, Russia, and China for Nickel and Manganese, while also exploring Manganese Carbonate projects outside of China.
• Diversification of marketing: Differentiating BEV models based on geography and consumer needs can help reduce reliance on high-cost chemistries and expand the market.

Key Information

• Battery minerals are the backbone of LiB production and are crucial for achieving cost efficiency and sustainability in the EV sector.
• LFP batteries are becoming more attractive due to their lower cost and environmental benefits, especially in markets with lower purchasing power.
• Europe’s current investment is heavily skewed towards downstream production (gigafactories), leaving the upstream and midstream segments underdeveloped.
• Cobalt-free cathodes, such as LFP, are being increasingly adopted to reduce price and supply risks.
• China's dominance in the LiB supply chain highlights the need for Europe to develop its own regionalized supply chain through strategic investments and partnerships.

Conclusion

The EU must take a comprehensive approach to securing battery minerals, focusing on diversification across investments, materials, sources, and marketing strategies. This will help reduce the risk of price hikes and ensure that the EV market can grow sustainably and independently, supporting the EU’s climate and green economy goals.