What a Real Digital Product Passport Looks Like
A digital product passport example in the real world is a structured, machine-readable data record — not a PDF, not a webpage, not a sustainability report. When you scan the QR code on a product that has a compliant DPP, you access a layered data system that shows different information depending on whether you are a consumer, a repair technician, a recycler, or a market surveillance inspector. This guide walks through concrete examples of what battery DPPs, textile DPPs, and electronics DPPs actually contain, how the data is structured, and what the end-user experience looks like from different access perspectives.
For the architectural framework underlying all of these examples, the digital product passport overview covers the identifier system, registry model, and regulatory basis in detail.
Battery DPP Example: An Industrial Energy Storage System
This is the most fully specified DPP type that exists in EU law today — EU Regulation 2023/1542 mandates it for industrial batteries above 2 kWh and EV batteries from February 18, 2027. Battery DPP examples illustrate what a fully compliant DPP looks like because the regulation is the most prescriptive about data fields currently in force.
Product Identity Layer (Consumer and Operator Visible)
For a hypothetical 48 kWh stationary energy storage battery manufactured by a Belgian company:
- Unique identifier: A unit-level GS1 Digital Link URL encoding the manufacturer's GS1 company prefix, the GTIN for this battery model, and the serial number of this specific unit. When scanned, the URL resolves to the DPP registry endpoint.
- Product model: Industrial LFP Battery Pack, Model ESS-48, 48 kWh nominal capacity
- Manufacturer: [Company name, legal address, VAT number, EU Authorised Representative if applicable]
- Date of manufacture: March 2026, Manufacturing facility: Liège, Belgium
- Battery category under EU Regulation 2023/1542: Industrial battery, capacity >2 kWh
Technical Specifications (Consumer and Operator Visible)
- Chemistry: Lithium iron phosphate (LFP), cathode: LiFePO₄, anode: graphite
- Nominal capacity: 48 kWh (rated at 25°C, 0.5C discharge)
- Nominal voltage: 51.2V
- Operating voltage range: 44.8V (minimum) to 58.4V (maximum)
- Rated power: 24 kW continuous discharge
- Cycle life: 6,000 cycles to 80% State of Health at 0.5C discharge, 25°C
- Expected service life: 15 years at one full cycle per day
Carbon Footprint Declaration (Consumer Visible, Third-Party Verified)
This field illustrates the level of precision the Battery Regulation requires. A credible battery DPP carbon footprint declaration for an LFP battery looks like this:
| Lifecycle Stage | CO2e (kg per kWh) | Data Basis |
|---|---|---|
| Raw material extraction and processing | 32.1 | Supplier primary data + ecoinvent 3.9 |
| Cell manufacturing (cell supplier, China) | 18.4 | Supplier primary data (energy + materials) |
| Pack assembly (manufacturer, Belgium) | 4.2 | Primary data (metered electricity, Belgian grid factor) |
| Transportation (cell factory to pack assembly) | 2.8 | Freight records, GLEC Framework factors |
| End-of-life treatment (credit for recycled materials) | −6.3 | Recycler process data, EU recycling rates |
| Total carbon footprint | 51.2 kg CO2e/kWh | Third-party verified by [Accredited Notified Body] |
Recycled Content (Consumer Visible, Third-Party Verified)
- Cobalt: 0% (LFP chemistry uses no cobalt)
- Lithium: 8.2% recycled (post-consumer black mass recycled lithium)
- Nickel: 0% (LFP chemistry uses no nickel)
- Lead: 0% (no lead in LFP cells)
- Copper (current collector): 12% recycled
- Steel (casing): 34% recycled
State of Health (Operator Visible, Updatable Throughout Service Life)
This is the field that makes the battery DPP genuinely dynamic. Rather than a static declaration, state of health is a live data field updated by the battery management system (BMS) at defined intervals. A battery at end of first life — removed from a stationary storage application after 8 years — might show:
- Current state of health: 84.3% of original capacity
- Remaining capacity: 40.5 kWh (down from 48 kWh nominal)
- Estimated remaining cycles to 80% SoH: approximately 2,400
- Last measurement date: [Date]
- Measurement method: BMS telemetry, manufacturer protocol v2.1
This data is what enables a second-life buyer to offer a fair price for the battery without expensive independent testing — the DPP eliminates the information asymmetry that currently suppresses secondary battery market prices. For the full technical breakdown of battery DPP requirements, the battery passport guide covers field-by-field specifications under EU Regulation 2023/1542.
Supply Chain Due Diligence (Authority Visible)
This layer — restricted to market surveillance authorities and verified operators — documents the due diligence process for critical raw materials. For cobalt (even though LFP contains none), lithium, and natural graphite, the declaration references the due diligence report prepared under Article 52 of the Battery Regulation, including the audit body's name, audit date, and scope.
End-of-Life Instructions (Operator Visible)
- Discharge requirement before disassembly: to below 10% state of charge
- Required tools: M6 hex key set, torque driver (8 Nm max on module connectors)
- Disassembly sequence: (1) Disconnect DC output terminals; (2) Remove BMS communications connector; (3) Remove four M8 case bolts; (4) Lift lid and expose module stack; (5) Disconnect module interconnects starting from positive terminal; (6) Remove individual 12V modules
- Hazardous components: Electrolyte is flammable — do not puncture cells. Lithium dust is reactive — wear PPE for cell-level disassembly.
- Authorised treatment facilities: [Linked list of registered battery treatment operators in the EU under the extended producer responsibility scheme]
Textile DPP Example: A Recycled Polyester Jacket
Textile DPPs are expected to become mandatory under an ESPR delegated act from approximately mid-2027. They are being piloted now by brands in the sportswear and outdoor clothing sector, where voluntary DPP programs have been running since 2022. A recycled synthetic jacket illustrates the textile-specific data structure well. For the full textile-specific regulatory framework, the textile product passport guide covers requirements in detail.
Product Identity
- Product: Men's Recycled Shell Jacket, Model RJ-220, All Sizes (batch-level DPP, one record per production batch of 500 units)
- Batch identifier: GS1 Digital Link URL, batch number B2026-03-FR-0047
- Manufacturing facility: Hanoi, Vietnam (factory ID and certification number)
- Brand owner: [Brand name, EU legal address]
- Season: Spring/Summer 2026
Material Composition
- Outer shell: 100% recycled polyester (post-consumer PET bottles). GRS certification number: [CU1234567GRS]. Recycled content: 100% of outer shell weight.
- Inner lining: 90% recycled polyester, 10% elastane. GRS certification for polyester component. Elastane not recycled (no viable recycling stream currently exists at commercial scale).
- Insulation: 80g/m² recycled polyester fill. GRS certified. Recycled content: 100% of fill weight.
- Zippers: YKK Natulon® (50% recycled polyester tape, nylon coil)
- Velcro: 100% recycled nylon (supplier declaration, no chain-of-custody cert)
- Total garment recycled content: 87% by weight
Restricted Substances
- PFAS (per- and polyfluoroalkyl substances): No intentional use. Shell coating: PFC-free DWR (durable water repellent), C0 chemistry. Test report reference: [Lab report number, bluesign certified laboratory].
- Azo dyes: No prohibited azo colorants detected. Test per EN ISO 14362-1. Test report reference: [Lab report number].
- Formaldehyde: <20 ppm (below EU Regulation 2016/425 limit). Test per EN ISO 14184-1.
- Phthalates: Not detected above REACH threshold in any component.
Carbon Footprint
- Scope: Cradle to gate (raw material through factory gate shipping)
- Total: 8.4 kg CO2e per jacket
- Breakdown: Recycled polyester fibre production (42%), textile manufacturing energy (31%), trim components (14%), logistics raw material to factory (13%)
- Basis: Supplier primary data for manufacturing energy; HIGG MSI factors for recycled polyester; ecoinvent 3.9 for background processes
- Verified by: [Certification body], date: [Date]
Repairability Information
- Zipper replacement: YKK standard coil zippers available through authorised repair programme. Replacement instructions: PDF and video at [URL].
- Seam repair: Standard sewing, no specialist equipment required. Repair guide: [URL].
- Spare parts availability commitment: 5 years from end of production run.
- Brand repair programme: [Link to mail-in and in-store repair service]
End-of-Life
- Recyclability rating: Limited (multi-material construction limits fibre-to-fibre recycling; suitable for mechanical recycling into insulation material or industrial wiper)
- Preferred end-of-life route: Textile collection point for mechanical recycling or second-hand resale
- Collection points: [Geolocation-linked list of take-back points registered under the brand's EPR compliance scheme]
- Disassembly for recycling: Remove metal zipper pulls (magnetic separation in facility); cut velcro attachments; main body suitable for mechanical shredding without further disassembly
Electronics DPP Example: A Commercial Laptop
Electronics DPPs under ESPR are expected from 2028. The structure below reflects the data requirements being developed in the ESPR delegated act process for ICT equipment, based on the regulation's framework requirements and the European Commission's preparatory studies.
What the Electronics DPP Shows a Consumer
The consumer-visible layer of an electronics DPP for a business laptop would show: EU Energy label class (e.g., Class B), battery life under standardised test conditions, repairability score (e.g., 7.2 out of 10), whether spare parts are available and for how long, and the carbon footprint of the device. For a device produced in volume, some of these fields are model-level rather than unit-level — the repairability score is identical for all units of a given model; the state-of-health data for the internal battery would eventually be unit-level and updatable.
What a Repair Technician's DPP Scan Shows
A repair technician scanning the same QR code — with verified operator credentials — accesses: the complete service manual, the spare parts catalogue with part numbers and current availability status, the tool specifications (including whether proprietary tools are needed), the warranty and repair history log for this specific unit, and hazardous component declarations (battery type and safe handling instructions, thermal paste specifications, screen substrate details relevant to recycling).
What a Recycler's DPP Scan Shows
A certified electronic waste recycler accesses: detailed material composition by component (screen panel, motherboard, battery, keyboard, chassis), hazardous substance locations and concentrations (hexavalent chromium in some die-cast parts, brominated flame retardants in PCB substrate, mercury in some older display backlights), disassembly sequences optimised for recovery of highest-value components, and the recycled content declared at product level for verification against what is actually recovered.
The DPP Scanning Experience: What Users Actually See
Understanding the data structure is one thing; understanding what a consumer actually experiences is another. When someone scans a DPP QR code with their smartphone camera — no app required, since GS1 Digital Link resolves through the standard camera URL handler — they land on a consumer-facing presentation of the DPP data.
What they see depends entirely on how the manufacturer has implemented the consumer interface. The DPP registry provides the data; the presentation layer is the manufacturer's or platform's responsibility. Best-practice consumer DPP interfaces show: a summary panel with the carbon footprint, recycled content, and repairability score displayed prominently; a materials breakdown with visual representation; a repair information section with links to spare parts and repair guides; and an end-of-life section with a postcode-searchable take-back locator.
Poor implementations exist too — QR codes that link to static product web pages, or to sustainability landing pages with no standardised data fields. These are not compliant DPPs; they are marketing pages with a QR code attached. The difference matters for regulatory compliance, and market surveillance authorities are specifically tasked with distinguishing between genuine DPP implementations and superficial appearances of compliance. The DPP creation guide covers what a technically compliant implementation requires versus what merely looks like one.
The underlying data that powers these examples — registry hosting, identifier management, QR generation, API access control — is what DPP-Tool handles through its platform. The features page shows how the platform manages the technical layers across product categories, and the pricing page shows how access scales with product volume and complexity.
Frequently Asked Questions
What does a digital product passport look like for a consumer?
When a consumer scans the QR code on a product with a compliant digital product passport, they typically see a mobile-optimised web interface showing: the product's carbon footprint in kg CO2 equivalent, recycled content percentage by material, energy efficiency rating, repairability score, available spare parts and their availability commitment period, and end-of-life guidance including nearby take-back or collection points. The interface is required to be accessible without registration or payment. The exact presentation varies by manufacturer and platform, but the underlying data fields are standardised by the applicable delegated act. Scans requiring an app download are not compliant with the regulation's accessibility requirements for consumer-accessible data.
What does a battery digital product passport contain as an example?
A compliant EU battery digital product passport, as required by EU Regulation 2023/1542 for industrial batteries above 2 kWh from February 18, 2027, contains: a unit-level unique identifier (GS1 Digital Link or equivalent), battery chemistry declaration, rated capacity and voltage specifications, cycle life at defined conditions, a carbon footprint figure in kg CO2e per kWh (third-party verified), recycled content percentages for cobalt, lithium, nickel, and lead, state-of-health data (updatable throughout the battery's operational life), supply chain due diligence declarations for critical raw materials, conformity assessment references, and end-of-life disassembly instructions accessible to authorised treatment facilities. Different data layers are accessible to consumers, operators, and market surveillance authorities based on permission-controlled access.
Are there existing real-world examples of digital product passports?
Yes, though most currently operating examples are voluntary pilots rather than mandatory compliance implementations. The EU-funded CIRPASS project has published reference implementations and pilot DPP deployments across several product categories. Several major European sportswear and apparel brands have deployed voluntary DPPs on selected product lines using QR codes linked to material transparency platforms. Some battery manufacturers are piloting battery passport implementations ahead of the 2027 mandatory deadline, often working with DPP platform providers to test the registry and access control architecture. The mandatory system is not yet in full operation because most delegated acts establishing exact field requirements are still in development or recently published, but the technical infrastructure and early implementations exist and are being iterated now.
How is a DPP different from a product label or sustainability report?
A product label is a static, printed declaration managed entirely by the manufacturer, with no standardised data format and no independent verification requirement. A sustainability report is a brand-controlled document with no regulatory data structure and no mechanism for machine-readable consumption by supply chain actors or regulators. A digital product passport is a machine-readable, standardised, access-controlled data record linked by a unique identifier to a specific product unit or batch, subject to third-party verification for specified fields, and accessible via API to different actor types with permission-differentiated data layers. It travels with the product across its full lifecycle, can be updated after sale, and is auditable by market surveillance authorities. The data is governed by regulation, not brand discretion.
What does a textile digital product passport example include?
A textile digital product passport, expected to become mandatory under an ESPR delegated act from approximately mid-2027, contains: product identity and batch identifier, fibre composition by weight percentage with chain-of-custody certification references for recycled or organic claims, restricted substance declarations (PFAS, azo dyes, formaldehyde, phthalates) with test report references, total product carbon footprint cradle-to-gate, recycled content percentage across the whole garment, repairability information including spare parts availability and repair manual links, care and longevity instructions, and end-of-life guidance including recyclability classification and take-back collection point information. Batch-level identifiers are expected to be permitted for most textile products rather than unit-level, which simplifies the identifier management burden compared to battery passports.
What does a repair technician see when they scan a DPP QR code?
A verified repair technician or authorised service centre scanning a DPP QR code accesses a data layer not available to consumers. This operator-accessible layer typically includes: the complete service manual and technical documentation, the spare parts catalogue with current availability status and part numbers, tool specifications including whether proprietary tools are required, the repair and service history log for that specific product unit (where updated by previous service operations), hazardous component declarations relevant to safe handling during repair, warranty status and terms, and in some product categories the full disassembly sequence optimised for component-level repair rather than end-of-life disassembly. Access to this layer requires the technician's operator credentials to be verified against the DPP registry's permission system.