One of the clearest developments is the continued diversification of the battery landscape. While NMC (Lithium Nickel Manganese Cobalt Oxide) remains a strong choice in mid- to premium applications, LFP (Lithium Iron Phosphate) continues to gain traction in more cost-sensitive applications. Rather than one chemistry replacing another, the industry is moving toward a model where different technologies coexist – depending on the specific application requirements.
At the same time, new technologies are gaining momentum. Sodium-ion is emerging as a promising alternative, with the potential to become cost competitive at scale and deliver performance comparable to LFP around 2030. In parallel, solid-state batteries remain a key focus area, with initial deployment expected in premium vehicles and broader adoption likely beyond 2030.
Interestingly, attention on LMFP (Lithium Manganese Iron Phosphate) appears to have declined over the past year, suggesting a shift in industry focus toward other emerging technologies.
Another notable development is the increasing role of artificial intelligence across the entire battery value chain. AI is already being applied in areas such as cell design, production, and performance optimization, and its importance is expected to grow as the industry continues to scale.
Beyond the technological developments, there are also clear signals from a business perspective. While Europe has strong capabilities in cell development, scaling production from lab to large-scale manufacturing remains a challenge. Strengthened collaborations with established players, particularly in Asia, are seen as one way to accelerate progress.
Rather than focusing on a single “winning” technology, the key lies in selecting the right solution for the right use case.
At the same time, new technologies are gaining momentum. Sodium-ion is emerging as a promising alternative, with the potential to become cost competitive at scale and deliver performance comparable to LFP around 2030. In parallel, solid-state batteries remain a key focus area, with initial deployment expected in premium vehicles and broader adoption likely beyond 2030.
Interestingly, attention on LMFP (Lithium Manganese Iron Phosphate) appears to have declined over the past year, suggesting a shift in industry focus toward other emerging technologies.
Another notable development is the increasing role of artificial intelligence across the entire battery value chain. AI is already being applied in areas such as cell design, production, and performance optimization, and its importance is expected to grow as the industry continues to scale.
Beyond the technological developments, there are also clear signals from a business perspective. While Europe has strong capabilities in cell development, scaling production from lab to large-scale manufacturing remains a challenge. Strengthened collaborations with established players, particularly in Asia, are seen as one way to accelerate progress.
A shift toward application-driven solutions
Overall, the industry is moving toward a more complex and dynamic landscape, where multiple chemistries coexist and decisions are increasingly driven by application needs.
Rather than focusing on a single “winning” technology, the key lies in selecting the right solution for the right use case.
