We can trace a product. Why not a building?

Blogs 11 may 2026

Pick up a T-shirt and scan the label. Within seconds, you can access information about where the cotton was grown, how it was processed, and how the product moved through the supply chain.

Buy an avocado, and you can often trace it back to the farm, the region, and even the harvest batch.

As consumers, we expect this level of traceability. In sectors like food and fashion, products are supported by structured, standardized data systems that capture origin, composition, and environmental impact across the supply chain.

The construction industry is moving in the same direction. Product-level information is becoming more accessible through digital data requirements and the development of Digital Product Passports.

But when those same products are assembled into a building, maintaining that level of clarity becomes significantly more complex. A building brings together thousands of components, each with its own data, stakeholders, and lifecycle considerations.

The opportunity now is not creating more information, but ensuring that this information remains accessible, connected, and usable over time.

The next step: data creation to data continuity

Construction projects already generate a substantial amount of material information. Design teams define specifications, manufacturers provide detailed product data, and contractors document what is installed on site.

The opportunity now lies in ensuring that this information remains consistent and usable across the full lifecycle of a building.

In many projects today, data is still managed at individual stages rather than as a continuous dataset. Information is created with a specific purpose in mind, such as design coordination, procurement, or handover, but is not always structured to support future use.

As a result, valuable material insights exist, but are not always readily accessible when new decisions need to be made.

Regulation is pushing for a new direction

Regulatory developments across Europe are reinforcing the importance of structured, accessible data.

The Construction Products Regulation (CPR) introduces requirements for digital, machine-readable product information, strengthening transparency at the product level. In parallel, Digital Product Passports are being developed to standardise how this information is shared and maintained.

At the building level, initiatives such as the Digital Building Logbook are shaping how data can be aggregated and managed over time.

Together, these developments point in a clear direction: product-level data is becoming structured and standardised, and the industry is now extending this approach to the building level.

Why data continuity matters across the building lifecycle

Maintaining data continuity across the lifecycle of a building requires alignment between phases that have traditionally operated independently.

During the transition from design to construction, material specifications may evolve as projects progress. Capturing these changes in a structured way ensures that the final dataset reflects what has actually been built.

At handover, information is often delivered in document form. Moving towards structured datasets allows this information to remain usable during operation and beyond.

As buildings are renovated or adapted, having access to reliable material data enables more informed planning, particularly when assessing reuse potential or environmental impact.

Each of these moments represents an opportunity to retain and strengthen the value of data.

What changes when material data is structured

Expectations around data quality are increasing, particularly in the context of sustainability and reporting.

Frameworks such as CSRD and the EU Taxonomy are driving a shift towards more transparent and auditable disclosures. This places greater importance on having structured, asset-level data that can support reporting requirements with confidence.

The same applies to Life Cycle Assessments. The reliability of an LCA depends on the quality of its inputs. When material data is well-structured and consistent, assessments become more accurate and more useful for decision-making.

At the portfolio level, asset owners are increasingly looking to compare buildings, identify risks, and plan long-term strategies. This requires data that is not only available, but also consistent and comparable across multiple assets.

What becomes possible when buildings are traceable

When material data is structured and maintained throughout the lifecycle, it opens up new possibilities for how buildings are managed and optimised.

Renovation projects can begin with a clearer understanding of existing materials, supporting more accurate planning and reducing uncertainty. Reuse opportunities can be identified earlier, allowing materials to retain their value across projects.

Carbon calculations can be based on actual material quantities and specifications, improving the quality of insights and supporting more informed decisions.

In this context, buildings move beyond being static assets. They become sources of measurable, usable information that supports both operational and strategic outcomes.

Documents converted to data structures

The industry does not need more information. It already produces detailed documentation at every stage of a project.

The shift underway is towards structuring that information so it remains usable over time.

Products can be traced because their data is standardised, structured, and maintained throughout their lifecycle. Applying the same principles at the building level allows data to move with the asset, rather than being tied to a single project phase.

This shift supports continuity, and with continuity, traceability becomes achievable.

Closing the gap

If individual products can be tracked with increasing precision, extending that visibility to the buildings they form is a natural next step.

The foundations are already in place. The industry is generating the right data, and regulation is providing direction on how it should be structured and shared.

What matters now is ensuring that this data remains connected, consistent, and usable across the full lifecycle of a building.

As expectations around transparency continue to evolve, buildings will increasingly be understood not only as physical assets, but as data assets as well.