原材料方面的挑战：金属和采矿部门将如何成为实现能源转型的核心领域-10页_442kb

Metals & Mining Sector and the Energy Transition

Core Content

The metals and mining sector is pivotal to enabling the global energy transition toward a net-zero economy. As the world shifts from fossil fuels to renewable energy and low-carbon technologies, the demand for raw materials is expected to surge significantly. This shift will not only require an increase in the supply of metals but also a transformation in how the sector operates, given its traditionally long lead times and high capital intensity.

The transition to a low-carbon economy is inherently materials-intensive, with sectors like road transport and power generation driving substantial demand for metals such as copper, nickel, lithium, and rare-earth elements. These materials are essential for technologies including electric vehicles, solar panels, and wind turbines. However, the supply of these materials is not expected to keep pace with demand, leading to potential shortages, price volatility, and the need for technological innovation and substitution.

Main Viewpoints

• Increased Demand for Raw Materials: The energy transition will significantly increase the demand for metals, particularly copper, nickel, lithium, and rare-earth elements. These materials are critical for the development of clean technologies, such as batteries and solar panels.

• Supply Constraints and Price Volatility: The supply of certain raw materials may not be able to meet the rising demand quickly, leading to price fly-ups and bottlenecks. This is especially true for niche metals like tellurium and cobalt, which are produced as by-products and have limited supply.

• Need for Innovation and Substitution: To address supply constraints, the industry will need to innovate in both production and technology. This includes developing new extraction and processing methods, as well as substituting certain materials with alternatives that have more available supply or lower environmental impact.

• Role of the Mining Sector: The mining sector must grow faster and more sustainably than ever before to support the energy transition. This requires a new growth agenda, investment in technology for productivity and decarbonization, and closer integration with supply chains to manage downstream emissions.

Key Information

Critical Raw Materials

• Copper: Essential for electrification and power generation. Demand is expected to grow significantly.
• Nickel: Used in batteries. Its supply may not keep up with demand, requiring substitution or technological advancements.
• Lithium: Important for battery production. Supply growth is expected to be capped by the growth of its parent metals.
• Tellurium: A niche metal used in solar panels. Its supply is constrained, making it a prime candidate for substitution.
• Rare-Earth Metals: Such as neodymium and praseodymium, are crucial for wind turbines and EV motors. Their supply is heavily concentrated in China, creating regional dependencies.

Supply and Demand Dynamics

• Feedback Loops: The interplay between supply, demand, and prices will create feedback loops, influencing technology shifts and material substitution.
• Lead Times and Capital Requirements: Large-scale mining projects have long lead times (7–10 years) and require significant capital, making rapid supply expansion challenging.
• Projected Supply Growth: For example, lithium supply would need to grow by around seven times between 2020 and 2030, while tellurium may need to grow even more rapidly.

Market Balance and Price Incentives

• Price Incentives: High prices will be a key driver for new supply development. For instance, copper prices above $8,000 to $10,000 per metric ton and nickel prices above $18,000 per metric ton could stimulate new investments.
• Substitution and Innovation: As prices rise, substitution of certain materials (e.g., cobalt with nickel) and technological innovation (e.g., LFP batteries) will become necessary to maintain cost and performance efficiency.

Implications for Producers and End-User Sectors

• Producers: Must innovate for productivity and decarbonization, rebuild their growth agendas, and integrate more deeply into supply chains to capture green premiums and manage downstream emissions.
• End-User Sectors: Need to factor resource constraints into their technology development and growth strategies. This includes adapting technology rollout plans and securing raw material supply through off-take agreements, partnerships, and equity ownership.

Conclusion

The metals and mining sector is at the heart of the energy transition, facing both opportunities and challenges. As demand for critical raw materials grows, the industry must adapt quickly through innovation, substitution, and strategic investment. The coming decade will be decisive for the success of global decarbonization efforts, and the sector's ability to respond will shape the future of clean technologies.