01Strategy definition and responsibility mapping
Goal: Clarify product classification and the company’s legal identity in the supply chain, and determine the applicable compliance path.
Determine the battery category and capacity threshold
- Calculate industrial battery energy under IEC 61960 (rated capacity Ah × nominal voltage V), not merely from the nominal value on the label, to determine whether the 2 kWh threshold is exceeded.
- Confirm whether the product is a “stationary battery energy storage system” (stationary BESS). Portable units (e.g. power banks that also provide propulsion) do not fall into this category and may be exempt from some BMS reset requirements.
| Prerequisites | Detailed electrical specification sheets for the product |
| Expected result | Clear identification of which SKUs need a carbon footprint and battery passport (>2 kWh industrial / EV / LMT) and which need only baseline compliance |
| Potential risk | If the regulator does not accept the IEC 61960 calculation, borderline products (e.g. 1.9 kWh) may be forced into the high-compliance-cost zone |
Determine “producer” status (EPR responsible party)
- Apply the EUROBAT scenario analysis tool to determine the registration responsible party by trade term (DDP/FOB) and customer type (OEM/distributor/end user).
- Cross-border e-commerce (direct sales to end users): immediately start the process of appointing an EPR authorised representative in the country of sale.
| Prerequisites | Clear sales contracts and a logistics route map |
| Expected result | Clarity on whether to register for EPR and pay yourself, or leave it to the EU customer; avoid double payment or compliance gaps |
| Potential risk | Member States apply different definitions of “first placing on the market”, which may result in conflicting registration requirements across countries |
02Building the supply-chain data architecture
Goal: Build a supply-chain traceability system that can pass third-party verification, in preparation for carbon footprint and due diligence.
Implement an OECD due diligence system
- Establish a management system based on the OECD Due Diligence Guidance for Responsible Supply Chains of Minerals from Conflict-Affected and High-Risk Areas.
- Limit the traceability scope to the battery cell level; exclude non-chemical components such as casings and screws for now.
- Require Tier 1 suppliers to disclose the names and countries of origin of their direct suppliers of upstream raw materials (cobalt, lithium, nickel, graphite).
| Prerequisites | Supply-chain transparency agreements signed |
| Expected result | Annual due diligence report produced (can be integrated into the ESG report), ready for notified body audit |
| Potential risk | Upstream miners falsify data or refuse transparency, making third-party verification impossible and the product barred from the market |
Carbon footprint data modelling and accounting
- Build an LCA model based on the PEF (Product Environmental Footprint) methodology.
- Collect primary data for specific factories and specific models; use of averaged data across different factories is strictly prohibited.
- Exclude “carbon offset” data and count only actual emissions.
| Prerequisites | Factory-level energy consumption and bill of materials (BOM) data complete |
| Expected result | Carbon footprint declaration (kg CO₂e/kWh) generated and filed in the technical documentation |
| Potential risk | Delegated acts are delayed or detailed rules change abruptly, invalidating earlier models and compressing the compliance window |
03Product engineering and testing
Goal: Adjust product design to meet physical performance, safety and data access requirements.
Develop open BMS data interfaces
- Design BMS firmware that can record and output state of health (SOH) and expected lifetime data in read-only form.
- Develop a software reset function for EV and LMT batteries.
- Confirm that non-smart industrial batteries (e.g. lead-acid) are exempt from the BMS installation obligation.
| Prerequisites | BMS hardware supports data storage and communication |
| Expected result | BMS data meets Annex VII requirements and supports repurposing assessment |
| Potential risk | Inaccurate BMS algorithms cast doubt on SOH data, leading to disputes in second-hand sales or hindering repurposing |
Removability and safety design
- Verify the “easy removability” of portable batteries under EN 45554:2020 (using commercially available tools).
- Carry out the safety tests specified in Annex V (thermal shock, short circuit, thermal propagation, etc.).
- Conduct a risk assessment using FMEA (failure mode and effects analysis) and include it in the technical documentation.
| Prerequisites | R&D team familiar with EN standards and EU safety parameters |
| Expected result | Product passes safety tests and the design meets right-to-repair requirements |
| Potential risk | Over-integration (CTP/CTC) makes “removable by independent professionals” impossible to meet, requiring new tooling |
04Conformity assessment and digitalisation
Goal: Complete the legal paperwork, obtain the CE marking and deploy digital tools.
Choose the conformity assessment module
- General safety requirements use Module A (internal production control), self-declared by the manufacturer.
- For carbon footprint, recycled content and similar indicators, a notified body must perform Module D1 (quality assurance of the production process) or Module G (unit verification).
- Screen qualified notified bodies in the NANDO database.
| Prerequisites | ISO 9001 quality system in place (the basis for Module D1) |
| Expected result | Notified body certificate obtained and EU declaration of conformity (DoC) signed |
| Potential risk | Insufficient notified body capacity causes backlogs, preventing the necessary certificates from being obtained before shipment |
Deploy the battery passport and QR code
- Choose a decentralised data solution and generate a unique identifier compliant with ISO/IEC 15459.
- Generate a QR code, ensure it contains some offline data (stored locally), and affix it in a prominent position on the battery.
| Prerequisites | IT systems have collected all compliance data (carbon footprint, material composition, etc.) |
| Expected result | Every battery has a unique digital identity, with data accessible to different permission levels |
| Potential risk | The chosen third-party passport platform is incompatible with EU data standards (e.g. Catena-X), requiring costly migration later |
05Logistics and after-sales
Goal: Ensure compliant physical delivery and a closed loop for waste battery management.
Digital documentation accompanying shipments
- Keep paper documents accompanying shipments only for safety information.
- Provide non-safety documents such as carbon footprint declarations and instructions via digital links/QR codes to reduce packaging costs.
| Prerequisites | Stable hosting servers for digital documentation |
| Expected result | Compliant with the Blue Guide, reducing logistics material costs |
| Potential risk | Customs in some conservative Member States insist on a full set of paper documents, causing goods to be held |
Repurposing and waste management
- If repurposing (e.g. from traction to storage), re-assess conformity under Module A and issue a new DoC.
- When exporting second-life batteries, provide SOH test reports (capacity/impedance tests) and sales contracts to prove they are not “e-waste”.
| Prerequisites | In-house battery condition testing capability or a partner |
| Expected result | Lawful cross-border transport of second-life batteries, avoiding allegations of illegal waste shipments |
| Potential risk | Re-certification costs are too high, the repurposing business model fails, and batteries are forced into direct recycling |
Basis: Regulation (EU) 2023/1542; harmonised and international standards including EN 45554:2020, IEC 61960 and ISO/IEC 15459; industry practice references the EUROBAT and EUROMOT guidance. This page is a compliance guide; the official text and the competent authority's interpretation prevail. Entries marked "under consideration" or "draft" may change.