February 18, 2027 is the hard deadline: every EV, industrial (>2 kWh), and light means of transport (LMT) battery sold in the EU must ship with a machine-readable Digital Product Passport. Miss it and the product cannot be placed on the market. This guide covers exactly what the regulation requires, which batteries are in scope, and what the 91 mandatory data fields look like in practice.
Which batteries are in scope
Regulation (EU) 2023/1542 covers three categories where the passport is mandatory from February 2027: electric vehicle batteries, industrial batteries above 2 kWh capacity, and light means of transport batteries (e-bikes, e-scooters, e-mopeds). Portable batteries (consumer electronics) and SLI (starter, lighting, ignition) batteries remain outside the passport requirement for now, though other parts of the regulation — labelling, collection targets, recycled-content minimums — still apply.
What's in the 91 mandatory fields
The passport is not a marketing datasheet. It's a structured dataset accessible via QR code on the physical product, with tiered access: public (anyone scanning), restricted (business partners with tokens), and authority (regulators, recyclers, market surveillance). The 91 fields break down roughly as follows:
- General info (18): manufacturer, model, production date, CE/compliance marks, conformity assessment body
- Composition & materials (22): active materials by mass, hazardous substances, critical raw materials (lithium, cobalt, nickel, natural graphite)
- Carbon footprint (12): per-kWh CO₂e across lifecycle stages, declared against the PEF methodology
- Performance & durability (17): expected lifetime, internal resistance, power, energy density, round-trip efficiency
- Supply chain due diligence (9): cobalt, natural graphite, lithium, nickel — country-of-origin + social/environmental risk assessment
- Repair, repurposing, recycling (13): state-of-health on removal, parts availability, dismantling instructions
Want all 91 fields, mapped to source data?
Free 26-page PDF — every battery passport field with its regulation reference (Article + Annex) and where to find the value in your supplier datasheets, IEC test reports, SVHC declarations, and PEF studies. Generated from the live TracePass battery template.
Who is responsible
The economic operator — whoever places the battery on the EU market, which usually means the manufacturer or the importer. A distributor reselling batteries already carrying a passport does not create a new one; their obligation is to check that a passport exists before placing on the market. Where a component battery cell supplier provides the cells but the pack is assembled elsewhere, the pack manufacturer is the economic operator for the finished battery's passport.
Field walkthrough — what each section actually contains
The 91 fields are clinically named in the regulation but ordinary in content. A few examples — the kind of thing your compliance team will trace through datasheets, IEC test reports, supplier declarations, and the PEF study — to anchor what "a battery passport field" actually means in practice:
- **batteryUniqueIdentifier** — a GS1 Digital Link URI that uniquely points at the specific battery unit (e.g. https://id.gs1.eu/01/<gtin>/21/<serial>). Source: your GS1 registration + serial-number generation. The single field that turns a passport from "per-model" to "per-individual".
- **carbonFootprintRawMaterialAcquisition** — kg CO₂e per kWh from the raw-materials phase of the lifecycle, calculated via PEF methodology. Source: the PEF study (€8K–€25K via an external assessor, 2–6 weeks). One field; six weeks of work upstream.
- **recycledContentCobalt** — percentage of cobalt in the cell that came from recycled sources, with chain-of-custody evidence required. Source: cell-supplier declaration backed by mass-balance accounting from a certified recycler. The first time you ask for this, expect a 4-week scramble.
- **expectedLifetimeYears** / **expectedLifetimeFullCycles** — manufacturer-stated lifespan with the test conditions that justify it. Source: your IEC 61960 / IEC 62619 test report. The field most often blocked because the test program ran on an earlier revision.
- **dismantlingInformation** — a URL pointing to a public PDF / video / instruction set explaining how the battery is removed from the host device for replacement or recycling. Source: your service-documentation team. Most teams realise they have repair instructions but not dismantling instructions; those are different documents.
Compliance-team mistakes and how to avoid them
Patterns I've watched repeat across battery-passport rollouts. None of these are deal-breakers; all of them cost weeks if you hit them late instead of planning around them:
- Starting the PEF study after design freeze. PEF takes 2–6 weeks via an external assessor and needs the bill-of-materials at the cell level. Teams that kick it off in the same week as type-approval submission lose 4–6 weeks they didn't budget. Start the PEF when you start the IEC test campaign.
- Mixing units in the supplier-data layer. Cell suppliers report capacity in Ah, energy in Wh, and resistance in mΩ. Pack-level data needs kWh, kg, and Ω. The unit conversion isn't hard but the version drift between supplier exports and your DPP template silently breaks the field. Pin units in the supplier portal and reject inconsistent inputs at intake, not at QA sweep.
- Using a stale SVHC list. The REACH SVHC candidate list updates twice a year (typically Jan and Jul). A passport published in February that lists "compliant per the 2024 SVHC list" is technically out of date by the time it's printed on the QR-code label. Auto-pull the current list at publish time, not at template-design time.
- Treating the passport as one-and-done. Once published, the passport must remain accurate for the battery's full lifetime. If you change cell chemistry mid-production, the passport for that production batch onward needs to update — and the older passports need to remain available for the units already in market. Most teams forget about the second part.
- Forgetting the GS1 setup until late. Without a registered GS1 GTIN + a Digital Link resolver, you literally cannot generate a valid passport URL. GS1 membership for a small EU manufacturer is €500–€1500/year (varies per country) and the registration process takes 1–4 weeks. Start that before the data-collection sprint, not after.
Cost ranges — what you'll actually spend
Indicative costs for a single battery model going through first-time DPP compliance. Numbers shift with model complexity, supplier responsiveness, and whether you're EU- or non-EU-based, but the order of magnitude is stable:
- **PEF (Product Environmental Footprint) study**: €8K–€25K via an external assessor, 2–6 weeks. Required for the carbon-footprint section. Reusable across model variants if the cell chemistry + supply chain stay the same.
- **Conformity assessment + notified-body fees**: €5K–€15K depending on battery type and how many module-by-module assessments your model requires. Often already in your existing CE-marking budget; the DPP doesn't add significant cost here.
- **Internal compliance team time**: roughly 240–400 person-hours for the first DPP across a typical compliance + R&D + supply-chain team. Drops to 40–80 hours per subsequent model variant once supplier relationships and field-mapping are established.
- **Software / passport-hosting platform**: €0–€2K/month depending on volume. The Free / Basic tiers of most platforms cover up to 25 DPPs/month at €49 or below. Mid-volume manufacturers (50–500 DPPs/month) typically land on €350–€500/month including AI-assisted extraction. Enterprise multi-tenant deployments are €5K–€10K/month, mostly for SLA + custom-domain features.
- **GS1 membership + Digital Link resolver**: €500–€1500/year for membership (per-country, scales with company turnover). The Digital Link resolver itself is included; you only pay if you want a custom-domain resolver under your own brand (€2K–€5K one-time setup).
- **Translation + multilingual hosting**: passport text fields legally need to be available in the language(s) of the member states where the battery is sold. Most platforms include 24-language hosting; if you go DIY, expect €0.10–€0.30 per word per locale for compliance-grade translation.
Where to start today
If you place batteries on the EU market and February 2027 is inside your product-development horizon, start by inventorying the 91 fields against what your organisation already has. Most manufacturers find 60–70% of the data exists — scattered across datasheets, supplier certificates, EPD reports, and internal QA documents. The gap is usually recycled-content percentages, per-kWh carbon footprint (requires a PEF calculation), and supply-chain due-diligence evidence. That gap is where you'll spend the next 18 months, and it's why a platform like TracePass exists: to collapse the last-mile data-wrangling step so your compliance team isn't still emailing suppliers in January 2027.
Frequently asked questions
When does the EU Battery Regulation passport requirement apply?
Battery passports become mandatory on 18 February 2027 for every EV battery, industrial battery above 2 kWh, and light means of transport (LMT) battery placed on the EU market under Regulation (EU) 2023/1542. Products without a passport cannot be placed on the EU market after that date.
Which batteries need a Digital Product Passport?
Three categories: electric vehicle batteries, industrial batteries above 2 kWh capacity, and LMT batteries (e-bikes, e-scooters, e-mopeds). Portable consumer batteries and SLI starter batteries remain outside the passport requirement, though other parts of Regulation 2023/1542 still apply (labelling, collection targets, recycled-content minimums).
How many fields are required in the battery passport?
91 mandatory data fields per Annex VI Part B of Regulation (EU) 2023/1542, organised into general info (13), materials & composition (7), carbon footprint (7), performance & durability (41), labels & markings (8), supply chain due diligence (3), and end-of-life (12).
Who is responsible for the battery passport?
The economic operator placing the battery on the EU market — manufacturer, importer, or authorised representative — is responsible for the accuracy, completeness, and ongoing maintenance of the passport for the battery's full lifetime. Cell suppliers and component vendors are not directly in scope; they are upstream sources for data the operator must publish.
What's the typical cost of producing a battery passport?
Major variable costs are the PEF (Product Environmental Footprint) study (€8K–€25K via an external assessor, 2–6 weeks), the conformity assessment if required for the specific battery type, and the data-collection effort across suppliers (3–4 months of compliance-team time on the first DPP, falling sharply for repeat models). Platform/software costs are usually a small fraction of the total — TracePass plans start at €49/month for manual entry, €350/month for AI-assisted extraction.
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