Today, global circularity stands at just 7.2%.
In other words, over 92% of all resources in circulation are single-use only – either wasted, lost, or never fully utilized.
Consequently, as the worldwide sustainability mandate becomes more stringent, the focus is increasingly on the circular economy to recover value at every stage of a product’s lifecycle. By extending product life and leveraging approaches – including upcycling, recycling, refurbishment, and reuse – it helps reduce the need for virgin materials while also lowering environmental and carbon impacts.
However, true circularity starts much earlier – at the product design stage. In fact, decisions made during design determine nearly 80% of a product’s environmental impact. Modern Product Lifecycle Management (PLM) solutions are already robust enough to handle complex product lifecycles. In many ways, they are inherently capable of supporting circular models.
Designing for return: the starting point of circularity
Circular lifecycles begin at the design table. This is where engineering teams define not just how a product will function, but also how it will come back into the system after use. A circular approach requires design to account for reuse, repair, disassembly, and material recovery from the outset.
Traditional CAD or BOM tools, on their own, were not equipped to handle this complexity. Modern PLM platforms, however, bring everything together. By connecting product genealogy with manufacturing and logistics data, PLMs today turn design into a multi-loop lifecycle strategy rather than a one-way process. With advanced PLM systems, engineers can now actively model different end-of-life scenarios during the design phase itself, including:
- Simulating disassembly pathways, evaluating material compatibility for recycling, and designing modular assemblies that simplify component recovery,
- Creating material passports that capture critical details, including composites, coatings, and joining methods, which often impact recyclability parameters, and
- Embedding lifecycle assessments (LCAs) directly into the design process, helping forecast environmental impact at both product and component levels.
Ultimately, circular design is not about adding constraints, but rather, about rethinking the blueprint to ensure continuity. Modern PLM systems make this possible by helping organizations design for longevity rather than disposal.
The key strategies to enable this transformation, include:
- Serialization, for enabling traceability from the design phase
Serialization gives each product or component a unique digital identity right from the design stage. This identity can then be tracked throughout its lifecycle, from use and maintenance to return and reuse. PLM platforms make this possible by embedding serialization logic directly into product structures and BOMs, driving greater visibility across the lifecycle and enabling:
- Efficient value recovery downstream,
- Compliance with take-back regulations, and
- Detailed tracking of material flows.
- Servitization to embed use-cycle intelligence
Designing for servitization means shifting from selling products once to delivering them as ongoing services. This requires products to be built for uptime, monitoring, and long-term support. PLM systems support this shift by enabling:
- Modular product configurations,
- Integration of sensors and monitoring capabilities, and
- Maintenance-friendly design architectures.
Engineers can now also simulate real-world usage and define upgrade, upcycle, or downcycle pathways in advance, helping ensure that products – and the components – stay in circulation longer.
- Engineering for reverse logistics for efficient recovery
Reverse logistics does not begin after a product’s life ends, but rather, starts at the design stage. Engineers need to think ahead about how products will be collected, disassembled, and processed. State-of-the-art PLM tools today enable this by allowing teams to:
- Simulate disassembly sequences,
- Identify reclaimable components, and
- Embed logistics-related data into design attributes.
This ensures that products are designed for efficient recovery from the start, removing uncertainty later in the lifecycle, and driving environmental performance as an engineered feature and not an afterthought.
- Modularization and standardization: design for lifecycle flexibility
Modular design plays a critical role in circularity. It improves reusability, simplifies upgrades, and speeds up repairs. PLM platforms help enable this by allowing engineers to:
- Manage standardized component libraries,
- Ensure interface compatibility, and
- Track reuse of parts across multiple products.
This encourages lifecycle-aware decisions during design, allowing components to be reused beyond a single application. Standardization also reduces material complexity, making recycling easier and lowering emissions across sourcing and end-of-life stages.
Transitioning to circular product design: your starting point
The shift to circular design requires a mindset change, with sustainability as a core design requirement, not an afterthought. Organizations that seek to undertake the journey need to start by redefining their design principles to prioritize reuse, modularity, and recoverability. And then, realign the PLM system to support these goals by:
- Enabling serialization frameworks,,
- Integrating lifecycle assessment tools, and
- Enriching BOMs with material and disassembly data.
What we need to remember here is that at a broader level, a well-configured PLM system becomes more than just a data repository. It becomes the backbone of a strategy that enables products to last longer, return efficiently, and continuously renew value.
And such an approach is key toward ‘closing the loop.’
