Prepare for the future: evaluate options and deploy battery recycling models once economies of scale can be achieved
If there is one certainty in the battery recycling space, it’s that ignoring it would be a major strategic error. Indeed, as the EU Battery Regulation requires the gradual incorporation of recycled materials into new batteries, access to competitive recycled cobalt, lithium and nickel will become a must have.
Yet the pace of EV adoption, evolving battery chemistries, and recycling technologies create a highly volatile and uncertain landscape.
In such a high-risk environment, risk-sharing becomes the only viable strategy. Building coalitions across the value chain — recyclers, battery manufacturers, technology providers — is key to gaining early traction while limiting capital exposure.
OEMs with a presence in Europe should prioritize two immediate actions:
First, quickly define and deploy a cost-efficient model for collecting end-of-life batteries to secure a stable supply of feedstock. A critical prerequisite is gaining a clear understanding of Battery Extended Producer Responsibility (EPR) regulations, which can differ significantly across EU member states.
Second, support the development of competitive, large-scale battery shredding and black mass refining capabilities within Europe to enable a fully closed-loop system. Forming strategic alliances and securing medium-term supply and offtake agreements with recyclers and chemical companies can help de-risk these projects and build the credibility needed to attract financial backing from national and European public authorities.
Conclusion
For automotive OEMs, adhering to the four key imperatives is essential for building a robust and credible circular business model. However, it should be emphasized that circularity cannot succeed without operational excellence. A profitable circular economy model is, above all, an operational challenge.
While operational excellence spans many areas, three core priorities stand out as foundational pillars:
- Collection: Efficient reverse logistics and product take-back schemes are crucial to securing quality material flows at scale. This is also an area where artificial intelligence can be deployed at relatively low cost, enabling predictive collection planning, routing, dynamic inventory tracking, and sorting optimization — all of which can drive significant efficiency gains and cost reductions.
- Standardization: Circularity is fundamentally about managing diversity — used parts and materials are, by nature, variable and often unique in condition, composition, and provenance. However, achieving scale and efficiency in circular operations requires introducing standardization wherever possible — in components, interfaces, testing protocols, and data formats. This reduces complexity, lowers costs, and enables seamless integration across reverse logistics, 4R streams.
- Partnership Management: Circular ecosystems demand strategic, long-term collaboration — from recyclers and remanufacturers to logistics providers and technology partners.
These partnerships are not static: they must be regularly monitored, adjusted and rebalanced as technologies, market conditions, and regulatory landscapes evolve, all the while remaining mutually attractive and value-generating for all parties involved.
A structured and staged approach to circularity, combined with a
relentless focus on operational excellence, is essential for OEMs to move from ambition to tangible impact. Success will depend not only on strategic intent, but on the ability to execute consistently across collection, standardization and ecosystem partnerships.
Those who embed circularity into their core operations—with the right capabilities, governance, and agility—will be best positioned to lead in a resource-constrained, regulation-driven and margin-sensitive future.