2023-12-31-罗兰贝格-电池监测2023——经济与生态紧张领域的价值链_36页_8mb

报告摘要

The battery market continues to grow rapidly with a global CAGR of ~34% until 2030 (≈4,900 GWh demand).
Key tensions exist between sustainability (ESG, circular economy) and competitiveness, with geopolitical factors and raw material supply chains playing critical roles.
New regulations (EU Battery Regulation, US Inflation Reduction Act) are reshaping global competition.

Carbon footprint: EU regulations require carbon footprint declarations; Asian production currently has highest emissions (~530 g CO₂/kWh). Innovations like direct lithium extraction (DLE) offer lower emissions but are not yet proven at scale.
Alternative chemistries: Sodium-ion (Na-ion) and LFP batteries offer cost advantages, but face challenges in energy density. Vanadium flow batteries are being explored for stationary storage but are bulkier and more expensive.
Circular economy: Closed-loop recycling is critical for reducing material demand (lithium, cobalt, nickel). Hydrometallurgical processes show promise with recycling rates expected to rise from ~60-95% depending on region/economy.

Cell chemistries: High-nickel NMC and LFP dominate EVs; dedicated cells for aircraft and commercial vehicles require specialized designs.
Manufacturing:
- Asian producers lead in capacity and cost efficiency, but face increasing competitive pressure from North America/EU.
- European producers (e.g., Northvolt) are focusing on carbon-neutral production using green energy.
- Innovations like dry coating and laser drying aim to improve throughput and reduce environmental impact.

Regional competition: China dominates current production (especially LFP/LiT), but US/China competition is intensifying, and European players are trying to secure competitive positions.
Geopolitical tensions: Supply chain diversification and regionalization (e.g. US-China tariff war) are strategic priorities.
Electrification targets: High investment planned in battery production capacity (~$0.5 trillion until 2030).

Electric vehicles: Primary use case until 2050 (~80% battery demand).
Energy storage: Growing demand for stationary applications (grid stability, renewable integration), suitable for both LFP and Na-ion battery technologies.
Charging infrastructure: Investments are accelerating; developments in battery swapping are making headway in Asia, and the technology is being explored in Europe and the US.

Meeting Environmental, Social, and Governance (ESG) requirements alongside cost-competitiveness.
Securing reliable supply chains for critical raw materials.
Technological breakthroughs required to overcome energy density and charging speed limitations.
Geopolitical risks and supply chain resilience in a highly volatile market.

Development of second-life battery applications (stationary storage).
Investment in circular economy infrastructure (collection, recycling, and repurposing).
Regional battery ecosystem development in North America and EU regions.
Innovation in next-generation battery chemistries (solid-state, sodium-ion).

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