Products play a key role in the transition to a climate-neutral and circular economy under the European Green Deal [1], as the current production models are unsustainable: they are mainly linear, which has been costly and resource-intensive, and they lack comprehensive standards. To tackle this challenge, the Digital Product Passport (DPP) is being introduced by the European Union as a tool to establish a functional market for products, by making information about the product available to actors along the entire value chain. This is expected to enhance traceability and monitoring of a product and allow economic operators and citizens with reliable data needed to make informed, circular choices, as they have access to a product’s origin, composition, repair, dismantling options and end-of-life handling [2].
The core purpose of the DPP is to ensure real-time access to product information throughout its lifecycle, necessitating a solid regulatory framework and a focus on both mandatory and voluntary data disclosure. According to Voulgaridis et al. (2023) [3] and Barata et al. (2024) [4], the primary data types managed through DPPs include:
- Identification & accessibility: Each product requires a unique identifier and machine-readable data, typically accessed via a physical tag (like a QR code).
- Product content & performance: detailed information on materials, components, production details, and functional suitability.
- Circularity & lifecycle: critical data on life expectancy, repair/reuse potential, recycling information, and disposal guidelines.
- Impact & compliance: transparency regarding the product’s environmental/social impact (e.g., carbon footprint) and proof of regulation conformity and business governance.
- Governance & history: records of ownership history, security certifications, and necessary data governance details.
The essential technical & regulatory requirements are organised across four main dimensions:
- Technical: the system must ensure high accessibility, interoperability (for seamless data exchange), modularity, and robust cybersecurity and data privacy protection.
- Data management: data must be collected from the early stages (preferably using IoT), guaranteeing traceability, portability, and access longevity across the value chain.
- Regulatory & trust: a clear framework is needed for mandatory/voluntary disclosure, Intellectual Property (IP) protection, transparency, and mandatory third-party verification of data.
- Business value: the data shared must support product sustainability and circularity performance, enable insights into value chain actor information, and provide valuable data for advanced AI applications like benchmarking and supplier selection.
The DPP acts as a track and trace instrument, influencing decisions on remanufacturing, material recovery and recycling, increasing transparency across the value chain, and serving as hubs for standards and regulatory compliance, ultimately aiding in the transition towards the EU’s targets of Green Deal, Circular Economy and Industry 5.0. [5]
F6S projects that are developing DPP
As one of the flagship Horizon Europe initiatives supporting the large-scale implementation of Digital Product Passports (DPPs), CIRPASS-2 is deploying 13 lighthouse pilots to validate DPPs across the textile, electronics, tyres and construction sectors. The project demonstrates how a standardised DPP system can enable downstream circular business use cases, such as reuse, repair and recycling, while ensuring cross-pilot semantic interoperability. In construction, CIRPASS-2 showcases how interoperable DPPs can improve information exchange throughout the product lifecycle, with use cases for both made-to-order and made-to-stock products. Beyond the pilots, CIRPASS-2 is helping accelerate DPP adoption by developing recommendations for SMEs and supporting the deployment of DPP-as-a-Service solutions.
The shift toward mandatory digital product traceability is crucial for the furniture sector. Cir4Fun, a three-year EU project, is dedicated to addressing this challenge directly. The project is actively defining the architectural and regulatory roadmap required to successfully implement the furniture DPP, ensuring the industry can effectively meet these new standards for sustainability and transparency.
The PSS-Pass project aims to significantly boost manufacturing circularity by developing the Digital Product Service System Passport (DPSSP), an extension of the existing DPP concept. The main objective is to use the DPSSP’s real-time data to improve Life Cycle Assessment accuracy via Machine Learning, enabling better circularity decisions. The project will provide innovative simulation and decision-support tools to manage the increased complexity and will demonstrate its solutions across three key pilot sectors: textiles, appliances, and complex equipment.
Within the context of construction materials production, BIOS MATER aims to implement DPP to push market adoption and increase transparency and traceability. The DPP acts as a bridge in shifting the construction sector towards circular economy, informing and tracking the origin of the sustainable feedstocks used in the production of bio-based panels and tiles, composites and foams. The passport will play a crucial role in assuring quality and regulatory compliance by verifying that the bio-based materials are aligned with Safe and Sustainable by Design (SSbD) frameworks, the EU Ecodesign regulations and health and safety requirements. Ultimately, the DPP will provide buyers, standardising bodies and public administrations, with the validation and transparency needed to mitigate technical barriers and confidently scale-up the production of bio-based alternatives.
The road ahead
The DPP is quickly becoming a non-negotiable instrument for the EU’s industry and completely changing how we track and prove sustainability. However, real challenges appear on the horizon, including tracking of materials across different countries, asymmetries in environmental rules, data trust between all supply chains and capacity between small businesses and big corporations. Product developers have to find a balance between interoperability and data management.
The projects of the F6S Manufacturing synergy are focused on making this digital shift work. Through initiatives like CIRPASS-2, PSS-Pass, Cir4Fun and BIOS MATER, they are building the technology, platforms, and safety frameworks that companies need to adapt. Tackling areas ranging from textiles and furniture to bio-based building materials, these projects prove that a DPP isn’t just about regulatory compliance, it’s the new foundation for sustainable business. Ultimately, these collaborative networks are paving the way for everyday citizens and industries to finally make smart, circular choices we can all trust. We’re excited to be part of it and to collaborate with our partners in creating a positive impact!
The Manufacturing synergy invites external stakeholders and media representatives to collaborate with us in spreading expertise, exploring new proposals, and fostering strategic project connections. Connect with our team at: manufacturing@f6s.com.
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[1] https://www.europarl.europa.eu/topics/en/article/20200618STO81513/green-deal-key-to-a-climate-neutral-and-sustainable-eu, accessed on June 26th 2026
[2] https://eur-lex.europa.eu/eli/reg/2024/1781/oj, accessed on June 26th 2026
[3] K. Voulgaridis, T. Lagkas, D. Karampatzakis, V. Argyriou, P. Sarigiannidis, Realizing digital product passports with crowdsourcing principles: The case of sustainable smart grids, in: 2023 19th International Conference on Distributed Computing in Smart Systems and the Internet of Things (DCOSS-IoT), IEEE, 2023, pp. 381–388.
[4] Carla Lopes, João Barata, Digital Product Passport: A Review and Research Agenda, Procedia Computer Science, Volume 246, 2024, Pages 981-990, ISSN 1877-0509, https://doi.org/10.1016/j.procs.2024.09.517.
[5] Hendro Wicaksono, Abel Mengistu, Atit Bashyal, Tamas Fekete, Digital Product Passport (DPP) technological advancement and adoption framework: A systematic literature review, Procedia Computer Science, Volume 253, 2025, Pages 2980-2989, ISSN 1877-0509, https://doi.org/10.1016/j.procs.2025.02.022.
