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Digital Product Passports: What Manufacturers Need to Know About Product Traceability

Product traceability has traditionally focused on questions such as where a component came from, which batch it belonged to, and when it was produced.
Published: Sep 24, 2026
Digital Product Passports: What Manufacturers Need to Know About Product Traceability

Digital Product Passports (DPPs) expand that concept by connecting structured product information across a broader portion of the product lifecycle.

Under the European Union's Ecodesign for Sustainable Products Regulation (ESPR), a DPP is a digital set of product-specific data accessible electronically through a data carrier. Depending on the requirements established for individual product groups, this information can support product identification, compliance verification, and traceability across the value chain.

For manufacturing operations, DPP preparation is therefore not simply about adding a QR code to a finished product. The more important question is whether the underlying product, material, and production data can be reliably connected and maintained.

What Is a Digital Product Passport?

A Digital Product Passport is a structured digital record associated with a product. Under ESPR, product-specific rules will determine what information must be included, which data carrier should be used, who can access particular information, and whether the passport applies at the model, batch, or individual-item level.

The framework also establishes important technical principles. DPP data must be based on open standards and interoperable formats and, where appropriate, be machine-readable, structured, searchable, and transferable without vendor lock-in.

This makes a DPP different from simply storing a specification sheet online. The information needs to remain connected to a persistent product identifier and usable across relevant systems and lifecycle stages.

Why Does DPP Matter to Manufacturing?

A product passport depends on reliable information, and much of that information can originate during material sourcing and production.

Manufacturing processes can affect material consumption, energy use, waste generation, and other product-related data. Research published in 2026 examining the connection between Digital Product Passports and Digital Process Passports highlights the importance of linking product information with relevant upstream process data.

This shifts the traceability question from simply "Do we have this information?" to "Can this information be connected to the correct product, batch, or item?"

A material certificate, for example, may already exist. But if it cannot be reliably associated with the relevant material lot and finished product, its usefulness within a broader lifecycle traceability system becomes limited.

What Information Could a Digital Product Passport Include?

There is no universal dataset that applies to every Digital Product Passport. Under ESPR, detailed information requirements will depend on the rules established for each relevant product group.

Depending on those requirements, relevant information could include:

  • Product Identity: Product, model, batch, or unique identifiers

  • Material Information: Material composition, components, or origin

  • Production Information: Relevant manufacturing and traceability records

  • Environmental Information: Applicable environmental or carbon-related data

  • Maintenance and Repair: Information relevant to servicing, repair, or component replacement

  • End-of-Life Information: Information supporting disassembly, reuse, or recycling

Not every product will necessarily require all of these data categories. The important change is that information traditionally maintained in separate systems may increasingly need to remain connected to the product.

How Does DPP Expand Traditional Product Traceability?

Traditional manufacturing traceability often focuses on production history: which material lot was used, when a batch was produced, or which process records correspond to a finished product.

DPP introduces a broader lifecycle perspective. Product information can potentially remain useful during later activities such as maintenance, repair, reuse, remanufacturing, and recycling.

This connection is one reason DPP development is closely associated with circular-economy initiatives. Research continues to examine how DPPs can support lifecycle transparency while also identifying challenges involving interoperability, data governance, privacy, and real-world implementation.

DPP should therefore be understood as an evolving framework for lifecycle information rather than a single standardized system already operating identically across every industry.

What Makes DPP Implementation Difficult?

The data carrier itself may be relatively straightforward. Creating reliable and usable information behind it is more difficult.

Fragmented Product Data

Material information, production records, environmental data, and service documentation may exist in different systems. Connecting these records consistently requires common identifiers and clear relationships between data.

Data Quality and Maintenance

Missing records, inconsistent terminology, or outdated documentation can weaken traceability even when a digital platform is available.

System Interoperability

Product information may need to move between different software environments and organizations. Without compatible data structures and common standards, DPP systems could create additional data silos rather than improve information exchange.

Data Access and Confidentiality

Not all product and manufacturing information should necessarily be available to everyone. Product-specific requirements can therefore determine which parties have access to particular DPP data.

How Can Manufacturing Operations Prepare for DPP?

Preparation does not necessarily mean implementing a complete DPP platform immediately. A practical starting point is to examine the traceability structure that already exists.

Identify where product identifiers, material information, production records, and relevant documentation are stored. Then determine whether these records can be consistently connected at the appropriate model, batch, or item level.

This process can reveal duplicated identifiers, missing relationships, manually maintained records, or information that exists but cannot easily be associated with the correct product.

The distinction between having data and having structured, traceable data is important. Improving that foundation can make future DPP requirements easier to address as product-specific rules become clearer.

Building the Data Foundation for Digital Product Passports

Digital Product Passports extend product traceability beyond isolated production records toward more connected lifecycle information.

The immediate priority is not to predict every field that future DPP rules may require. Instead, manufacturing operations can focus on understanding where relevant product data originates, how reliably it can be linked, and whether it can remain usable across different systems and lifecycle stages.

As product-specific DPP requirements continue to develop, stronger product identifiers, structured records, and connected manufacturing data can provide a practical foundation for adapting to future requirements.

Published by Sep 24, 2026 Source: European Union — Regulation (EU) 2024/1781, Ecodesign for Sustainable Products Regulation (ESPR), European Commission — Digital Product Passport, European Commission — Methodology for Defining Data Requirements for the Digital Product Passport Under the ESPR Framework (2026), Psarommatis, F. & May, G. — A Comprehensive Review of Digital Product Passports in Sustainable Manufacturing: Current State, Challenges, and Future Directions (2026), ISO — Digital Product Passports Explained

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