In a fleet of company vehicles, the fleet manager no longer wonders which diesel model to replace. The question has become: which embedded software accepts remote updates, what percentage of recycled plastic does the manufacturer guarantee, and how long before the battery is refurbished rather than discarded. The technical trade-offs have changed in nature, and recent European regulatory constraints are accelerating this shift.
European Regulation on Vehicle Circularity: What Changes in Practice
Since August 2026, Regulation (EU) 2026/1738 on end-of-life vehicles applies throughout the Union. This text replaces the old directive from 2000 and imposes circularity obligations at every stage of the life cycle, from design to final recycling.
For a purchasing manager or a subcontractor, the thresholds to remember are precise. Starting from September 1, 2032, new types of vehicles must be designed so that 85% of their mass is reusable or recyclable and 95% reusable or recoverable.
On the plastics side, the text sets a minimum rate of 15% recycled content in new vehicles starting in 2032, increasing to 25% in 2036, with a portion that must come from end-of-life vehicles.
The other significant new feature is the introduction of a digital circularity passport for each new vehicle placed on the European market starting in 2032. This digital document details the composition of the vehicle and facilitates disassembly, repair, and recycling. For equipment manufacturers, this means tracking each component from production onward.
Understanding the developments in the automotive sector now involves reading these regulatory obligations, well ahead of the marketing announcements from manufacturers.
Software-Defined Vehicle: The Car Becomes an Update Platform
We often hear about “software-defined vehicles” (SDV) without realizing what it implies on a daily basis for a workshop or dealership. In practical terms, the vehicle’s functions (assisted braking, battery thermal management, driver interface) no longer depend solely on the hardware installed at the factory. They evolve through software updates sent remotely, just like updating a phone.
Centralized computing architectures, embedded artificial intelligence, and OTA (over-the-air) updates accelerate this transformation towards vehicles whose value relies as much on software as on mechanics.
For a subcontractor supplying electronic components, the change is direct: the product life cycle no longer ends at delivery. Software compatibility must be planned for several years, and sufficient processing capabilities must be integrated to accommodate future features. Feedback on this point varies depending on the size of the supplier and its level of integration with the manufacturer.
Automotive Supply Chain: Robustness and Traceability as Priorities
After the semiconductor supply disruptions, manufacturers and their suppliers have learned operational lessons. The trend is no longer towards cost reduction at all costs, but towards diversification of sources and transparency in the supply chain.
The requirements of the European regulation on circularity reinforce this dynamic. Documenting the origin of materials, ensuring traceability of recycled plastics, proving regulatory compliance at each link: these tasks require integrated information systems, often ERP-type, capable of producing real-time data.
Subcontractors that do not automate this traceability risk being excluded from supplier panels. Here are the points on which clients focus their audits:
- Origin and certification of recycled materials used in plastic components, with documentary proof compliant with the circularity passport
- Ability to provide real-time production data (scrap rate, energy consumption per part, batch of raw material)
- Supply continuity plan with at least two qualified sources per critical component
Electrification and Batteries: Beyond Range, the Second Life
Electrification remains the main driver of transformation in the automotive sector. Manufacturers are investing in range and charging speed, but the real industrial issue is battery management after use.
The European regulation encourages the design of removable and refurbishable batteries. For a fleet manager, this opens up the possibility of extending the life of an electric vehicle by replacing only the degraded battery pack, rather than replacing the entire vehicle.
Solid battery technologies, still in the pre-series stage at several manufacturers, promise higher energy density and better thermal resistance. Their large-scale deployment will depend as much on industrial maturity as on the regulatory framework for recycling the new materials used.
Assisted Driving and Open Data: Two Regulatory Fronts to Watch
Driver assistance systems are becoming more complex. The European Union and several Asian countries have recently updated their approval frameworks to integrate more advanced levels of automation. For a supplier, this means longer validation cycles and strengthened cybersecurity requirements for each sensor and processing module.
At the same time, the issue of access to data from connected vehicles is gaining importance. The “walled garden” model, where the manufacturer exclusively controls the data generated by its vehicles, is being challenged. Opening fleet data is becoming a competitive issue for managers, insurers, and independent maintenance providers.
These two fronts (automation and open data) will structure negotiations between manufacturers, subcontractors, and regulators in the coming years. Companies in the sector that anticipate these requirements in their product design will gain a concrete advantage in tenders, whereas those that wait for regulatory deadlines will have to adapt their lines in urgency.