Recycling & Circularity Developed 2026 · C16 4 min

Battery Recycling in Europe: A Location Decision Driven by Feedstock, Cost and Risk

Battery recycling in Europe has moved from a strategic aspiration to a concrete investment question, but the harder problem is not whether it matters, it is where and in what form to build. This case study follows a Swiss recycling infrastructure fund, backed by European automotive players, weighing a capital-intensive recycling platform. The shortlist narrowed to Germany as the benchmark, alongside France, Hungary, Poland, and Spain, with the whole decision turning on feedstock, cost, and risk.

The Problem: A Scrap-First, End-of-Life-Later Market

The central tension is that recycling capacity in Europe is rising faster than the supply of batteries to recycle. Battery sales do not translate directly into feedstock, because batteries often stay in use longer than expected, get reused in other applications, or move across borders. For the next several years the market looks scrap-first: manufacturing scrap is expected to make up a major share of available feedstock around 2030, while genuine end-of-life volumes remain limited because most electric vehicles are still too young to retire. Germany illustrates the point, with just over 2.0 million battery-electric passenger cars in active registration and a record 1.22 million such vehicles produced in 2025, yet limited near-term battery returns. The committee's concern is that a plant could be built ahead of the feedstock it needs, undermining utilisation and returns.

The Approach: Five Variables and a Realistic Structure

Rather than pick a country on strategic instinct, the fund reduced the decision to five variables most likely to determine whether the project could be financed, ramped, and defended: capex per ton installed, secured feedstock, long-term plant utilisation rate, lithium-price sensitivity, and weighted average cost of capital. The structure considered was not an all-equity greenfield build but a sponsor-led special-purpose vehicle combining strategic equity, public support, and external financing. The physical shape mattered too. Instead of one large hub, a more realistic model pairs a single deeper-processing facility with smaller collection, dismantling, or pre-processing sites closer to the scrap. Chemistry exposure shaped the economics: nickel- and cobalt-bearing chemistries such as NMC carry stronger material value and suit a hydrometallurgical business model, while LFP stays strategically relevant but leans more on gate fees and long-term contracts.

The Findings: Germany as Benchmark, With a Cost Penalty

Germany offers the deepest automotive and battery ecosystem, strong industrial infrastructure, and a relatively mature regulatory environment under EU Regulation 2023/1542, which introduces recycled-content requirements, battery passports, and binding recovery targets. Industrial-scale projects are already moving beyond pilot stage: a plant under development at Chempark Dormagen is expected to start at about 30,000 tonnes per year and expand to 60,000, while an operating black mass plant in Schwarzheide handles up to 15,000 tonnes per year. The case stresses that black mass is an intermediate, not a final product; turning it into battery-grade chemicals requires further hydrometallurgical treatment, and a water-based process under development targets recovery above 90 percent for lithium, cobalt, nickel, manganese, and graphite. Germany's drawback is cost: higher labour and construction, tighter compliance, and stronger competition for battery volumes. Newer hubs elsewhere in Europe offer lower costs or newer manufacturing footprints as the value chain spreads across several industrial corridors.

What It Means for the Industry

Transport and cross-border logistics have become a material part of recycling economics rather than a rounding error. Hazardous battery transport within Europe typically runs 80 to 250 euros per ton, with cross-border administrative and regulatory costs adding another 20 to 70 euros, so total logistics can reach roughly 100 to 320 euros per ton. That reframes the location question: it is not only where feedstock exists, but how economically it can be reached. Logistics can account for a large share of total cost, and current European plants often run well below full capacity, so securing feedstock through long-term arrangements is the decisive factor. Public support is increasingly designed to attract private capital rather than replace it, which makes disciplined structuring, not subsidy chasing, the path to a defensible platform.

Key Takeaways

European recycling capacity is growing faster than battery return volumes, so feedstock security is the defining risk.

The near-term market is scrap-first, with manufacturing scrap a major share of feedstock around 2030 while end-of-life volumes stay limited.

Five variables frame the decision: capex per ton, secured feedstock, utilisation rate, lithium-price sensitivity, and cost of capital.

NMC chemistry suits a commercial hydrometallurgical model, while LFP depends more on gate fees and long-term contracts.

Germany is the industrial benchmark but carries higher labour, construction, and compliance costs and stronger competition.

Black mass is an intermediate product; converting it to battery-grade chemicals needs further hydrometallurgical processing.

Logistics can reach roughly 100 to 320 euros per ton, so reachable feedstock matters as much as available feedstock.