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2025

European Gigafactory Market

Overview

02 | Overview

Europe’s battery sector stands at a critical juncture, bolstered by strong political and industrial momentum aimed at building a resilient regional EV supply chain. However, financial stakeholders continue to grapple with significant technological, operational, and commercial risks. Large-scale battery projects, or gigafactories, face complex ramp- up challenges, uncertain demand for EVs and specific chemistries, and a heavy reliance on Chinese-controlled supply chains.

Non-recourse financing introduces additional constraints, making it difficult to achieve investment-grade ratings during the construction phase without long-term offtake agreements from original equipment manufacturers (“OEM”) and well-defined industrial strategies. Lenders must carefully navigate trade-offs between product specialization, portfolio diversification, and cost competitiveness, while prioritizing projects that demonstrate clear industrial viability and strong stakeholder commitment.

Encouragingly, emerging clusters such as “Battery Valley” in northern France signal early progress toward establishing a sustainable and strategically independent European battery ecosystem. Beyond France, multiple large-scale projects across Germany, Spain, and Hungary suggest that Europe’s industrial pipeline has the potential to close a significant portion of its future demand gap. If these projects achieve timely ramp- up and secure stable offtake agreements, Europe could position itself as a credible counterweight to Asian and US battery dominance.

Reducing Dependence: The Case for Expanding Europe’s Domestic Battery Manufacturing

Despite early signs of progress, Europe faces a pivotal challenge in scaling its manufacturing capacity to meet the accelerating demand from the expanding EV market. The region accounts for roughly 25% of global battery demand but only about 10% of global production capacity, leaving it highly dependent on imports and exposed to geopolitical risks and cost volatility. Operational challenges, including delays and ownership changes at key projects, highlight structural vulnerabilities across the European gigafactory landscape.

Uncertainties around specific battery chemistries, higher production costs relative to Asia, and supply chain concentration in China further emphasize the urgency for Europe to accelerate gigafactory development, secure long-term offtake agreements and foster a resilient industrial base capable of meeting the EU’s 2030 zero- emission vehicle (“ZEV”) targets. Even fully independent European gigafactories remain heavily reliant on Chinese-controlled supply chains—such as the near-monopoly over anode production—making them vulnerable to geopolitical tensions in the US–China– Europe trade relations.

Despite setbacks from high-profile start- ups such as Britishvolt, Northvolt, and CustomCell, Europe remains committed to scaling its battery production. Continued progress will depend on forging strategic partnerships, accelerating innovation in manufacturing processes, and reducing supply-chain vulnerabilities. If these efforts are sustained, Europe can build a more resilient and competitive battery ecosystem, positioning itself to meet rising EV demand while gradually reducing its dependence on imports.

Closing the Gap: Europe’s Gigafactory Landscape and Growth Needs

Despite recent advancements, Europe’s battery production pipeline continues to fall short of its own electrification goals and still lags behind global competitors. China controls over 75% of global Li-ion cell manufacturing, while the US has turbocharged domestic investment through the IRA. In contrast, fragmented policies, elevated energy costs, and prolonged permitting processes have hindered the pace of factory deployment across Europe. By 2030, Europe’s battery demand is expected to approach 1,000GWh, but the region currently has just over 300GWh of operational manufacturing capacity in place. This significant gap leaves Europe dependent on imported materials, with China remaining the dominant supplier.

To achieve the NZIA target of producing 40% of its battery demand domestically, Europe will need an additional 200GWh/year of manufacturing capacity by 2030. Meeting the EBA goal of 550GWh/year requires an even larger scale-up—roughly 250GWh/ year of new capacity. While the announced project pipeline indicates that these targets are attainable, a significant portion of the planned capacity remains under non- European ownership. This underscores the urgent need for a strategic onshoring approach to safeguard Europe’s autonomy and secure a reliable domestic supply

Some Major Gigafactories Currently Operational in Europe

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Source: New Automotive, News Releases, Company Publications

Europe’s Gigafactory Landscape: Momentum, Headwinds and Institutional Response

Driving Forces Behind Europe’s Gigafactory Push

Multiple factors are propelling the rise of gigafactory projects across Europe. Regulatory mandates such as the EU’s “Fit for 55” package and the 2035 ZEV targets are pushing automakers to rapidly electrify their fleets. The planned phase-out of internal combustion engine sales, along with binding CO2 reduction targets, creates long-term clarity for investors and OEMs. In response, leading manufacturers including Volkswagen, Stellantis, Renault, and BMW have committed billions to EV platforms, creating surging demand for localized cell production.

This wave of investment is reinforced by a supportive policy and funding environment. The EU Green Deal Industrial Plan has streamlined permitting processes and relaxed state aid rules, while national subsidy programs—from France’s €1 billion allocation to ACC to Spain’s Proyectos Estratégicos para la Recuperación y Transformación Económica (Strategic Projects for Economic Recovery and Transformation) (“PERTE”) EV grants—are drawing in battery and EV manufacturing projects. Collectively, these measures integrate regulatory pressure, industrial investment, and financial incentives to accelerate the rollout of gigafactories across Europe.

Another key driver lies in Europe’s structural advantages. Markets such as Spain, France, and Sweden offer abundant low-carbon energy potential, enabling sustainable cell production that is increasingly vital for Environmental, Social, and Governance- conscious (“ESG”) automakers and investors. Europe’s stringent ESG and sustainability standards, while requiring careful compliance, further enhance the credibility and global attractiveness of European battery projects. At the same time, proximity to established automotive clusters in Germany and cost- competitive assembly bases in Eastern Europe creates an integrated EV value chain that strengthens the business case for local cell production.

Structural Challenges Slowing Europe’s Momentum

Despite favourable tailwinds, Europe’s battery industry faces significant challenges. Elevated industrial energy costs undermine its competitiveness compared to Asia and the US, where energy prices and government subsidies are more advantageous. Europe also depends heavily on external suppliers for cathode and anode materials, as well as critical mineral refining, leaving it exposed to global supply chain risks.

Permitting bottlenecks and local opposition add to delays, as seen with environmental protests around CATL’s Hungary project. Grid congestion and uneven renewable energy availability further constrain the stable, low- carbon power supply needed for gigafactory operations.

A deeper challenge lies in policy fragmentation. While the EU sets broad industrial frameworks, member states continue to apply varying subsidy schemes and permitting rules, making cross-border projects complex and slowing the pace of scale-up. EU-level measures such as the NZIA and CRMA are designed to close these gaps, but implementation remains uneven.

Talent shortages compound these pressures. While Europe’s automotive industry provides a strong foundation, its gigafactory ambitions are constrained by a shortage of highly educated battery researchers and technical experts. Fraunhofer ISI, a distinguished applied research institute, estimates that the EU’s direct battery-skilled workforce must grow from about 60,000 today to 200,000 by 2030, a target far harder to meet than the broader creation of up to 800,000 value-chain jobs by 2025, most of which can be filled through training and reskilling. The scarcity of specialized researchers is the real bottleneck, as they are essential multipliers for scaling skills and advancing next-generation battery technologies.

EU Institutional Backbone: Policy, Regulation, and Funding

To overcome these challenges and enhance resilience, the European Union has progressively developed a robust industrial framework for the battery sector. Over the past decade, it has strategically integrated industrial policy, regulatory measures, and financial instruments to strengthen the global competitiveness of Europe’s battery industry.

The policy journey commenced with the Strategic Energy Technology (“SET”) Plan, which, as early as 2007, recognized breakthroughs in energy storage technologies as critical to achieving decarbonization goals. A 2015 revision sharpened this focus: among its ten priority actions was a dedicated objective for the EU battery sector to achieve global competitiveness, positioning it as a cornerstone of Europe’s e-mobility ambitions. Building on this momentum, the European Commission launched the EBA in 2017, a public–private platform that now connects over 800 stakeholders across the battery value chain.

In 2018, the European Commission adopted the first Strategic Action Plan on Batteries to strengthen the entire value chain from R&D to recycling. To support large- scale investment, the EU approved two Important Projects of Common European Interest (“IPCEI”) for batteries. The first, launched in 2019, provided up to €3.2 billion in public funding from seven member states to support R&D and initial industrial deployment of innovative, sustainable battery technologies, aiming to attract around €5 billion in private investment. The second, approved in 2021, allocated €2.9 billion across twelve member states to accelerate raw material extraction, advanced cell design, and recycling projects, expected to leverage ~€9 billion in private capital.

More recently, the Green Deal Industrial Plan (2023) elevated batteries to one of 19 strategic net-zero technologies under the NZIA. The NZIA established a non- binding target of 550GWh of EU battery manufacturing capacity by 2030. To support this objective, it introduced key instruments such as priority permitting and the creation of ‘net-zero acceleration valleys’ to foster industrial clustering, attract investment in net-zero technology manufacturing projects, and streamline approval processes. Complementary frameworks include the CRMA, designed to strengthen supply chains, and the Batteries Regulation, which imposes EU-wide requirements on sustainability, recycling, carbon footprint disclosure, and due diligence. Supporting measures like the revised Industrial Emissions Directive and the Euro 7 Regulation extend these standards to production sites and battery durability.

On the funding side, EU financial support has come through programmes such as Horizon Europe, the European Regional Development Fund, and the Recovery and Resilience Facility. The European Court of Auditors estimates that between 2014 and 2020 alone, at least €1.7 billion in EU grants and loan guarantees were directed towards the battery sector. The European Investment Bank (“EIB”) has also emerged as a key financier, extending dedicated lending across the battery value chain.

These initiatives form the EU’s institutional core — strategic, regulatory, and financial measures to scale battery production, secure supply chains, and enhance global competitiveness.

Assessing the EU Battery Industry’s Competitive Position — SWOT Framework

STRENGTHS

  • Robust automotive sector driving large-scale demand for batteries

  • Supportive policy framework accelerating the uptake of clean technologies

  • Strong institutional backing for R&D, innovation, and industrial deployment

  • Broad societal and political commitment to climate action and stringent environmental standards

WEAKNESSES

  • Heavy reliance on third countries for raw materials, refining, and production equipment

  • Elevated energy and labour costs reducing cost competitiveness

  • Complex regulatory processes and lengthy permitting timelines

  • Gaps in domestic production capacity for low-cost cells and battery-containing goods

  • Limited integration between R&D and industry, particularly in Eastern Europe

  • High business uncertainty and investor caution around new technologies

OPPORTUNITIES

  • Rapidly expanding markets for battery- enabled applications, from EVs to stationary storage

  • Strong synergies with adjacent sectors such as hydrogen, grid services and other energy storage technologies

  • Critical role of batteries in enabling large- scale renewable integration, grid stability and reduced energy costs

  • Potential to accelerate emissions reduction by displacing fossil fuel use

  • Development of localized, resilient value chains through alternative and more sustainable battery chemistries

  • Opportunity for the EU to shape and lead emerging international standards and regulations on batteries

  • Growth of recycling and circular economy solutions to supply secondary raw materials, including critical minerals

THREATS

  • Strong competition from established global battery producers

  • Rising imports risk worsening the EU’s trade balance if domestic production lags

  • Intensifying competition from countries offering cheaper battery technologies, often supported by heavy subsidies

  • Competitive pressure from imports originating in regions with lower environmental and labour standards

  • Geopolitical tensions and disinformation campaigns could erode public trust in EU battery strategies while reinforcing reliance on fossil fuel incumbents

  • Consumer price sensitivity may limit willingness to pay a premium for higher- quality or more sustainable EU-made batteries

Source: European Parliament

Country-Level Developments: Momentum Across Europe

Europe’s battery expansion is not uniform; some countries have emerged as clear leaders while others are catching up.

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THE LEADERS

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Poland

Manufacturing Powerhouse but Needs Diversification
Poland has become a key player in Europe’s EV and battery supply chain, led by LGES’s Wroclaw gigafactory— the largest in Europe with 86GWh capacity, targeting 90GWh by 2025. Supported by €95M in state aid and €250M from the EIB, Poland has scaled rapidly to lead in cell production. Its low labour and operating costs and proximity to German automakers make it a strategic hub. Domestic EV manufacturing is rising, with Stellantis producing Leapmotor T03 in Tychy, boosting demand for domestic batteries. However, the sector relies heavily on Korean firms like LGES and SK On. Strengthening local R&D and grid infrastructure is vital for long-term competitiveness.
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Hungary

Asia’s Gateway to the EU
Hungary has established itself as Asia’s main entry point into the EU, hosting major Korean players like Samsung SDI and SK On, which together operate close to 90GWh of gigafactory capacity. The country’s future pipeline also looks strong, with significant projects underway, including CATL’s €7.3 billion Debrecen facility (~100GWh) and planned expansions by Samsung SDI and SK On. To secure CATL’s investment, the Hungarian government offered around €800 million in grants and tax breaks, complementing its pro-investment policies and relatively efficient permitting regime. However, challenges persist, particularly growing environmental opposition and Hungary’s reliance on foreign OEMs for technological expertise.
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Germany

Expanding Gigafactory Capacity, Confronting Cost Pressures
Germany continues to distinguish itself as one of Europe’s leading gigafactory hubs, led by Tesla’s Berlin site and CATL’s facility. Its strong automotive ecosystem—home to VW, BMW, and Mercedes— supports this growth. Robust R&D and IPCEI funding further strengthen its battery manufacturing edge. Tesla plans to expand Berlin to 100 GWh, while PowerCo is building a new gigafactory. These moves reflect Germany’s ambition to lead in battery production. However, high energy costs, rising labour costs, and slow permits pose challenges. Despite this headwinds, Germany’s role in the auto value chain remains critical. Its innovation-driven approach keeps it competitive in the EU market. Germany stands firm as a strategic hub for large-scale gigafactory development.

THE EMERGING ONES

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France

Fast-Growing Hub with Aggressive State Support
France has emerged as a rising contender in the European battery landscape, driven by assertive state support and strategic policy initiatives. The ACC gigafactory is scaling towards ~40GWh by 2030, joined by Verkor and ProLogium’s multi-billion-euro solid-state investments. France’s access to competitively priced, nuclear- generated power enhances its appeal as a hub for low- carbon battery manufacturing. Moreover, the Hauts-de-France “Battery Valley” cluster—home to ACC, Verkor, ProLogium, and AESC—offers synergies through proximity to suppliers, industrial infrastructure, and a concentrated labour pool. This clustering dynamic, supported by reliable energy and water resources, strengthens France’s position as a cornerstone of Europe’s gigafactory ecosystem, though occasional labour unrest poses risks.
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Spain

High Potential with Industrial Clusters Emerging
Spain is quickly catching up in Europe’s battery race with major projects such as Volkswagen’s PowerCo gigafactory in Valencia (~40GWh) and the Stellantis– CATL joint venture (~50GWh by 2026), both supported by the government’s PERTE industrial grants. The country benefits from a strong automotive base with players like SEAT and Stellantis, abundant low-cost renewable energy, and well- positioned ports that support both domestic demand and exports. These competitive advantages position Spain as an increasingly attractive destination for large-scale gigafactory investments, particularly as automakers seek integrated supply chains within Europe. However, challenges persist, including slow permitting procedures in some regions and fragmented regional government support, which could delay timelines despite otherwise favourable conditions.
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Slovakia

Nascent Market with OEM Integration
Slovakia is positioning itself as an emerging hub for EV and battery manufacturing, leveraging its strong automotive base with Volkswagen, Stellantis, Kia, and Jaguar Land Rover. Its strategic location near Hungary and Poland offers regional supply chain synergies, while early-stage projects signal growing momentum. A key development is the €1.2 billion InoBat–Gotion joint venture, backed by €214 million in government support through subsidies and tax relief, which includes provisions for technology transfer and skills development. However, with Chinese company Gotion holding an 80% stake, strategic decision-making remains largely foreign- controlled. To secure long- term competitiveness, Slovakia must expand domestic innovation capacity and scale public investment alongside these foreign-led projects.
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United Kingdom

Playing Catch-Up After Recent Setbacks
The UK is gradually regaining momentum in the battery sector, following setbacks such as the collapse of Britishvolt and recent financial concerns surrounding AMTE Power. Britishvolt entered administration after failing to meet production timelines and secure OEM offtake agreements. AMTE Power now faces potential collapse unless it secures new funding—highlighting the fragility of early- stage players. Despite these setbacks, the UK government is actively working to strengthen the sector through initiatives such as the Clean Power 2030 Action Plan, which sets out a comprehensive clean energy strategy, and the National Wealth Fund (“NWF”). As part of this, £1.5 billion has been earmarked from the NWF to accelerate gigafactory development, reflecting a clear commitment to expanding domestic battery production capacity. Some projects are already benefiting from this policy push. Agratas’ (Tata Group’s global battery business) Somerset gigafactory (~40GWh) has secured around £500 million in subsidies, while AESC’s Sunderland facility is progressing towards 15.8GWh of annual output with support from a £1 billion public– private financing package. However, trade frictions, high energy costs, and ongoing permitting delays continue to challenge the UK’s gigafactory ambitions.
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Sweden

Sustaining Europe’s Battery Capacity Through Lyten’s Acquisition of Northvolt
Sweden, once anchored by Northvolt’s ambitious gigafactories, is now entering a renewed phase of activity following Lyten’s acquisition of Northvolt’s remaining European assets, previously valued at approximately $5 billion. The portfolio includes around 16GWh of operational capacity at Northvolt Ett in Skellefteå, plus over 15GWh under construction, alongside R&D facilities in Västerås and sites under development such as Heide, Germany. While this ensures Sweden will continue contributing meaningfully to Europe’s gigafactory build-out, the shift in ownership to a US based company has raised concerns that Europe has lost control over a strategically important homegrown battery player. Nonetheless, Sweden’s renewable- powered infrastructure and skilled workforce remain key enablers for scaling these assets under new stewardship.