Tech-Driven Sustainability: Circular Commerce is More Than a Trend
Circular commerce — resale, rental, repair, and take-back — has run on marketing claims for years because nothing forced brands to prove the loop actually closed. That changes under the EU's Ecodesign for Sustainable Products Regulation, which entered into force on 18 July 2024 and requires a Digital Product Passport carrying verifiable material, repairability, and lifecycle data for an expanding list of product categories.
What circular commerce actually is, without the branding
Circular commerce replaces the linear take-make-dispose model with systems that keep products and materials in circulation. In practice it's five recurring operating patterns, not one program.
- Resale (re-commerce): pre-owned or returned inventory sold through a brand-owned or third-party channel
- Rental and subscription: temporary access to a product instead of a one-time sale
- Repair and refurbishment: returned units restored to a sellable condition and reintroduced to inventory
- Take-back and recycling: brands reclaim used products to recover or repurpose materials
- Remanufacturing: new products built from components recovered from used ones
Each pattern needs different systems: resale needs a grading and listing pipeline, take-back needs reverse logistics and material tracking, remanufacturing needs bill-of-materials traceability down to the component level.
The regulation that makes traceability mandatory, not optional
The Ecodesign for Sustainable Products Regulation — Regulation (EU) 2024/1781 — sets EU-wide sustainability requirements covering durability, repairability, recycled content, and disassembly, with initial priority categories including textiles, furniture, tyres, mattresses, iron and steel, and aluminium, according to the European Commission's Green Forum.
Its central mechanism is the Digital Product Passport: a digital record, linked to a physical product through a QR code or similar carrier, holding data on safety, origin, materials, repairability, environmental performance, and reuse and recycling information. The DPP Registry — the infrastructure businesses register passports against — went live on 20 July 2026.
The rollout is phased, and the phasing is the actual project plan
Batteries are first, with mandatory passports required from 18 February 2027. Iron and steel requirements land in Q4 2026, textiles, aluminium, and tyres follow through Q3-Q4 2027, and furniture, mattresses, and ICT products join in 2028 and 2029.
Any brand building a circular commerce program in a category on that list is building compliance infrastructure whether it labels the project that way or not. The DPP fields — material composition, repairability score, recycled content — are exactly the data a resale, refurbishment, or take-back program needs to run its own grading and disposition logic.
A Digital Product Passport isn't a marketing asset. It's a regulator-facing data contract that happens to also be the input your resale and refurbishment systems need.
GS1 standards are the identification layer most passports will sit on
A passport needs a stable, machine-readable way to identify the specific item or batch it describes. GS1's Global Traceability Standard already defines this: GTIN for product identification, GLN for locations, plus critical tracking events and key data elements that record what happened to an item and where.
GS1 explicitly positions these standards for circular use cases — supporting maintenance, repair, replacement, and end-of-life disposition — as part of its circular economy and sustainability priority work. A brand building DPP-compliant traceability from scratch is very likely reinventing an identification scheme GS1 already standardized.
Comparing the five circular models by systems burden
| Model | Core system requirement | Data intensity | Typical fit |
|---|---|---|---|
| Resale | Grading rules engine, secondary listing pipeline | Medium — condition and provenance data per unit | High-value, durable categories with resale demand |
| Rental/subscription | Asset tracking, turnaround scheduling, damage assessment | High — full lifecycle state per physical unit | Categories with high per-unit value relative to purchase price |
| Repair/refurbishment | Returns triage, repair workflow, QA before resale | Medium — repair history becomes part of the product record | Electronics, appliances, anything with replaceable components |
| Take-back/recycling | Reverse logistics network, material sorting | Low-medium — aggregate material flow, not always per-unit | Categories with recyclable materials and low resale value |
| Remanufacturing | Component-level bill of materials, disassembly data | High — full component traceability required | Complex durable goods with standardized components |
Building the reverse logistics pipeline as a data pipeline
Every circular model needs the same three data points captured at the point a product re-enters the system: item identity, condition at return, and disposition decision. Skipping any one of them means the resale or refurbishment queue runs on guesswork.
- Scan or resolve the item identity against its GS1 GTIN and, where a Digital Product Passport exists, pull its material and repairability data before grading
- Capture condition at intake with a structured rubric, not free-text notes — grading consistency is what makes automated routing possible later
- Route the disposition decision (resell, refurbish, recycle, remanufacture) through rules tied to condition grade and category, with manual review only for edge cases
- Write the disposition and any repair actions back to the product record, so the next lifecycle event has full history to work from
- Feed aggregate disposition rates back to buying and merchandising, since a category with a high return-to-recycle ratio is signaling a product quality or durability problem upstream
Where this plugs into the commerce systems you already run
Passport data isn't a new system bolted on the side. Material composition and repairability data belong in the product information management system, next to the attributes that already drive search filters and product pages.
The complication is granularity: two units of the same SKU can diverge once they've been through a take-back or repair cycle, so passport data has to be trackable at the unit or batch level, not just the SKU level. A PIM schema built assuming one attribute set per SKU will need an extension for per-unit lifecycle history before it can carry this correctly.
The order management and warehouse systems need new fields too — condition grade, disposition decision, repair actions taken — attached to the specific returned unit, not aggregated at the SKU level where the detail that makes automated routing possible gets lost.
Treat the QR/NFC carrier as a routing key, not just a compliance sticker
The physical carrier linking a product to its passport is also a convenient hook for the reverse logistics flow: scanning it at intake can resolve identity, pull existing passport data, and pre-populate the grading screen in one step. Building the intake scan against the same carrier the passport uses avoids maintaining two separate identification schemes for the same physical item.
Rolling out without trying to solve every category at once
Teams that try to build circular infrastructure for their entire catalog at once tend to ship nothing, because the data model differs meaningfully across product categories. A phased build tracks the regulation's own phasing instead of fighting it.
- Pick one category already in ESPR scope for your business — the regulation's own priority list is a reasonable starting filter
- Extend the PIM schema for unit-level passport data first, as a read path, before building any write path or disposition automation
- Pilot take-back or resale on a narrow SKU set within that category, with manual disposition review while the grading rubric gets calibrated
- Automate disposition routing only once the manual pilot has enough volume to validate the rules against real condition data
- Expand category by category, reusing the PIM extension and intake flow rather than rebuilding it per category
Disposition decisions need one owner, not a committee
The most common operational failure in a circular program isn't the technology — it's that condition grading, disposition rules, and pricing sit in three different teams with no single owner for the rulebook. Merchandising wants resale, warehouse ops wants throughput, and finance wants the write-off minimized, and none of those goals automatically align.
The rules engine that routes a returned item to resale, refurbishment, or recycling has to encode one team's priorities as the default, with the other teams' concerns as explicit constraints on that default. Without that, every edge case escalates to a meeting instead of resolving through the automated rule.
The greenwashing risk didn't go away — it changed shape
Before mandatory passports, a "circular" claim was whatever a brand's marketing team wrote on a landing page. That's the exposure regulators are now closing: a passport carries verifiable material and lifecycle data, so a category in scope can no longer make a durability or recyclability claim that its own passport data contradicts.
The practical risk shifts from "did we say the right words" to "does our data match what we said." A resale program without an actual disposition pipeline behind it, or a recycling claim without material-flow data to back it, is now a discoverable gap rather than an unverifiable one.
The honest version of a circular commerce claim is the one you can trace to a disposition record. If a "sustainable" label can't be traced to an actual repair, resale, or recycling event, it's marketing copy, not a program.
FAQ
Which products need a Digital Product Passport first?
Batteries are first, with mandatory passports required from 18 February 2027. Iron and steel requirements begin in Q4 2026, followed by textiles, aluminium, and tyres through 2027, then furniture and ICT products in 2028-2029.
Do we need a Digital Product Passport if we're not selling into the EU?
Only products placed on the EU market are in scope, but a global brand with EU distribution in an affected category needs a passport for that market, and the underlying traceability data is worth building once rather than per-region.
What data does a Digital Product Passport actually contain?
Depending on the product category, it can include safety information, origin, material composition, repairability, environmental performance data, and reuse or recycling instructions, linked to the physical product via a QR code or similar carrier.
Can GS1 identifiers be used to satisfy Digital Product Passport requirements?
GS1's GTIN, GLN, and traceability event data are built for exactly this kind of per-item and per-batch identification, and GS1 positions its standards explicitly for circular economy use cases.
Is resale always the right circular model to start with?
No. Resale fits durable, high-value categories with existing secondary demand; take-back and recycling fit categories with low resale value but recoverable materials. The model should follow the product's actual resale and repair economics.
Where should passport data live — PIM, OMS, or a separate system?
PIM for the SKU-level and static attributes (material, standard repairability score); OMS or a dedicated lifecycle record for the unit-level history (repairs performed, disposition events) that changes per physical item over time. The underlying discipline pays off operationally even for brands outside initial ESPR scope, since it's the same data a resale or refurbishment program needs to run well.