The circular economy poses a direct question to your ERP: have you configured your return flows as full-fledged industrial processes, or are you still treating them as commercial exceptions?
For most European manufacturers, the honest answer is the latter. Yet between the EU Ecodesign for Sustainable Products Regulation (ESPR 2024/1781), Extended Producer Responsibility (EPR) schemes rolling out across member states, and the gradual deployment of the Digital Product Passport (DPP), return traceability and end-of-life product management are moving from best practice to regulatory obligation.
This guide is written for IT directors, supply chain directors, and sustainability managers at manufacturing companies (electronics, appliances, automotive, equipment) looking to structure this approach within their existing IT landscape — without switching ERP.
Circular Economy and ERP: An Underestimated Connection
The 4 Flows the Circular Economy Generates in an IT System
The circular economy does not generate a single flow but four, each requiring distinct IT treatment:
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Commercial returns and after-sales service: defective products, end-of-warranty returns, customer retractions. Every supply chain director knows the volume. What most miss is that this flow is often managed outside the ERP — in a spreadsheet or disconnected satellite tool.
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Repair: restoring the product to working condition without changing its reference. A short cycle with high traceability stakes for replaced components.
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Reconditioning (refurbishing): full overhaul, testing, cleaning, partial component replacement. The product is resold with a new warranty at a differentiated price point.
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End-of-life and WEEE: destruction, recycling, dismantling in compliance with EPR schemes. This flow must also be documented with a traceable waste transfer record linked to the relevant eco-organisation.
A standard ERP handles the forward flow well: purchasing, manufacturing, sales, delivery. These four reverse flows are typically handled at the margins, creating accounting, regulatory, and operational blind spots.
Why Most ERPs Are Configured for Forward Flows Only
The reason is historical. ERPs were designed to optimise the transformation of raw materials into finished goods sold to customers. Return flows represented a marginal fraction of transactions and never received the same rigour of configuration.
The practical result: a product return often generates a commercial credit note without the stock being reintegrated at the right location, without the serial number being updated in the bill of materials, and without the disposition decision (back to stock, repair, reconditioned, recycling) being tracked in the system.
This is not a functionality problem. Most ERPs on the market have the necessary modules. It is a configuration and prioritisation problem.
The Regulatory Framework Accelerating the Agenda: EPR, ESPR, WEEE
Across the EU, Extended Producer Responsibility (EPR) frameworks have expanded significantly since 2020. National implementations vary, but the direction is consistent: producers bear formal responsibility for the end-of-life management of their products, with mandatory reporting to accredited eco-organisations. WEEE (Waste Electrical and Electronic Equipment) collection targets have been tightened under WEEE 2 (Directive 2012/19/EU), and further revisions are in progress as part of the EU Circular Economy Action Plan.
At the European level, the ESPR regulation (2024/1781), which entered into force on 18 July 2024, lays the groundwork for the Digital Product Passport. The first DPP obligations cover batteries from 2026, then textiles and electronics in 2027–2028, and construction materials and furniture between 2028 and 2030.
For manufacturers of electronics, appliances, or automotive equipment, this is no longer a distant horizon. It is an IT project that needs to start now.
Returns Management (RMA): The First Priority
The RMA Process in Your ERP: Authorisation, Receipt, Diagnosis, Decision
A well-configured RMA (Return Merchandise Authorisation) process in the ERP follows four steps:
Return authorisation. The customer or after-sales technician creates an RMA in the ERP. The request includes the serial number or batch number, the categorised reason for return, and the destination warehouse.
Physical receipt and quarantine. On arrival, the product is assigned to a quarantine location. The system does not automatically reintegrate available stock. This is the most common configuration error: a commercial credit note is issued, but stock is not updated — or is immediately reintegrated into sellable stock without prior inspection.
Diagnosis and decision. A quality team or technician inspects the product and records the disposition decision in the ERP, choosing from four predefined options.
Processing by destination. The flow diverges with different accounting, logistics, and regulatory implications depending on the outcome.
The 4 Destinations for a Returned Product
| Destination | ERP Treatment | Regulatory Stakes |
|---|---|---|
| Back to stock | Reintegration after quality control | Mandatory batch traceability |
| Repair | After-sales work order, tracking of replaced components | Serial number traceability |
| Reconditioning | Dedicated manufacturing order, routing and BOM | Accounting valuation, EPR compliance |
| Recycling / WEEE | Waste transfer record linked to eco-organisation | Mandatory EPR reporting |
The fourth destination is often the most neglected in ERP configuration. Destruction or recycling must be documented with a waste transfer record linked to the relevant EPR eco-organisation. Without this traceability, the company cannot justify its declaration obligations during an audit.
For a manufacturer handling several thousand annual returns in consumer electronics, the absence of clear coding for these four destinations typically results in phantom stock (returned products whose exact location and condition is unknown), repair costs not allocated to the right cost centre, and an inability to produce EPR evidence when required.
Batch and Serial Number Traceability in the Return Flow
Bi-directional traceability (from finished product back to raw materials, and forward again) is essential in a circular return flow. It allows three operational questions to be answered:
- Which component is failing? To decide whether to repair or dismantle without fully stripping the product.
- Where does the material batch used in this product come from? To detect a serial batch issue and target a recall.
- What is this product’s service history? For the DPP, and to price a reconditioned unit accurately.
ERPs that do not manage serial-level traceability at the manufacturing order level cannot answer these questions. For manufacturers targeting reconditioning programmes, this is a non-negotiable prerequisite.
Reconditioning and Remanufacturing in the ERP
Creating a Reconditioning Manufacturing Order
Reconditioning is a manufacturing process, not a commercial return. It must be modelled in the ERP accordingly:
- Reverse bill of materials: the returned product is the input material. Replacement parts are additional components with their own valuation.
- Reconditioning routing: the sequence of operations (disassembly, cleaning, diagnosis, replacement of worn components, functional testing, final packaging). The routing is distinct from the new-production routing.
- Dedicated cost centre: labour and component costs are allocated to a reconditioning cost centre, separate from new-unit production. Without this, calculating the real margin of the programme is impossible.
Reconditioning, Remanufacturing, and Warranty Repair: Three Distinct Concepts
These three terms are regularly confused, with different fiscal and regulatory consequences:
- Warranty repair: restoring the product to working condition without changing its nature, charged to after-sales. VAT and product status remain unchanged.
- Reconditioning (Refurb): full overhaul with testing and commercial warranty. The product is resold under a distinct status. Under EU consumer law (Directive 2019/771), buyers of refurbished goods are entitled to the same statutory guarantee period as new products — a standard that several member states have already implemented and others are progressively aligning with.
- Remanufacturing: industrial rebuilding to original specifications, using original or equivalent certified parts. The product is considered equivalent to new under applicable sector standards (ISO 5011 for automotive filters, EU Directive 2023/1426 for certain vehicle categories).
For the ERP, this means three distinct item masters with different target selling prices, margins, and warranty terms.
Accounting Valuation of a Reconditioned Product
The valuation of reconditioned product stock follows a different logic from new units:
- The input value is the cost of the return (often zero or a partial credit against the original price) plus the reconditioning cost (labour, parts, testing).
- A potential write-down must be provisioned if the product does not sell at the target price within a defined period (typically 60 to 90 days, depending on category).
- The reconditioned unit’s selling price generates a calculable gross margin from the ERP, which must be tracked to validate the economic viability of the programme.
Without appropriate accounting configuration, reconditioned units sink into the standard finished-goods stock pool and their actual profitability remains invisible.
End-of-Life Traceability and the Digital Product Passport
The ESPR Regulation and the Progressive DPP Rollout
The Digital Product Passport is created by the ESPR regulation (2024/1781). Every in-scope product will need a unique identifier linked to a data record accessible via QR code or data carrier throughout its lifecycle.
The rollout is phased by product category:
- Batteries: first DPP obligations from 2026, in parallel with the Battery Regulation (2023/1542), with a deadline of 18 February 2027 for industrial and electric vehicle batteries.
- Textiles and electronics: obligations expected between 2027 and 2028 under European Commission delegated acts.
- Construction materials, furniture, metals: horizon 2028–2030.
For affected manufacturers, the DPP requires structured data to be available, reliable, and maintainable throughout the product’s life. That data lives in the ERP.
How the ERP Feeds the DPP
The DPP is not a report to generate once at market launch. It is a living record, updated at each intervention on the product. The ERP is the only system capable of feeding this level of granularity:
- Bill of Materials (BOM): material and component composition, BOM version used for each produced unit.
- Material traceability: percentage of recycled content, origin of critical components (critical minerals, recycled plastics).
- Repairability: guaranteed availability and lead time for spare parts, repairability information.
- Repairability index: for products subject to EU or national repairability labelling obligations (France implemented mandatory repairability scoring for consumer electronics in 2021; an EU-harmonised framework under ESPR is currently being developed).
- Intervention history: repairs, component replacements, reconditioning cycles.
Preparing for the DPP is therefore first and foremost an audit of data quality in the ERP: complete BOMs with recycled material percentages, batch traceability activated on critical components, material fields populated on item masters.
Links with CSRD and Sustainability Reporting
The CSRD’s ESRS E5 standard specifically covers circular economy: raw material consumption, recycling rates, waste management, end-of-life product flows. The data the ERP collects for the DPP and for returns management is exactly what the sustainability department needs for ESRS E5 reporting.
A manufacturer that structures its return flows in the ERP is not running two separate projects. It is building a single operational database that serves supply chain efficiency, EPR compliance, the DPP, and CSRD reporting simultaneously.
Which ERPs Are Ahead on This Topic?
SAP S/4HANA: Product Footprint Management and Sustainability
SAP has the most comprehensive offering for manufacturers committed to the circular economy. SAP Responsible Design and Production (RDP) ensures material traceability and per-product environmental impact analysis. SAP Product Footprint Management calculates carbon and material footprints from actual S/4HANA supply chain data.
For return flows, Reverse Logistics scenarios are available in the MM/LE modules, and reconditioning manufacturing orders are built on the standard PP module.
The primary limitation remains cost: these modules assume S/4HANA is in place and represent significant additional investment, most relevant for large enterprises subject to Wave 1 CSRD obligations.
IFS Cloud: Asset Management and Full Lifecycle Coverage
IFS Cloud is recognised for its industrial asset lifecycle management (EAM), particularly in aerospace, defence, and services sectors. For the circular economy, this translates into native management of equipment returns, maintenance history by serial number, and repair and reconditioning workflows integrated at the core of the system.
IFS is particularly suited to manufacturers operating on long-lifecycle, high-unit-value products where individual-level traceability is non-negotiable.
Odoo: Native and Community Modules
Odoo Enterprise includes a returns and repairs module (Repairs) that covers basic RMA flows. For industrial use with large-scale reconditioning and DPP traceability, specific developments or community modules (OCA Repair, Stock Return) are generally required.
Odoo’s advantage is its flexibility: the data model is open, and reconditioning flows can be modelled as standard manufacturing orders. For a mid-market manufacturer handling several hundred returns per month, this is a solid foundation — provided the customisation budget is planned upfront.
Specialised Solutions Interfacing with the ERP
For companies whose return volumes justify a dedicated platform, specialised reverse logistics solutions interface with the existing ERP via API: platforms such as Reverse Logix, or sector-specific tools for electronics and equipment. These tools manage the customer-facing RMA interface, sorting and routing of returns, and feed disposition data back into the ERP.
Where to Start: 5 Steps to Structure the Approach
1. Inventory your existing return flows. Extract from your ERP or WMS the monthly volume of returns, by product category and effective destination. If you do not have this table, its absence is already a diagnostic. This volume determines the level of justifiable investment.
2. Configure RMA flows in the ERP. Formalise the four destinations (back to stock, repair, reconditioned, recycling) as distinct statuses in your ERP. Create quarantine locations, after-sales work orders, and reconditioning manufacturing orders. Do not let returns fall into a generic catch-all flow.
3. Activate serial number traceability. For products that will fall within DPP or EPR scope, activate serial-level traceability on manufacturing orders. This is the only way to feed the DPP and justify EPR obligations with granular data.
4. Audit BOM data quality. Check the completeness of your bills of materials: recycled material percentage populated, critical component origin documented, spare parts availability period indicated. These data points must live in the ERP, not in an isolated product file.
5. Build sustainability reporting from the ERP. Configure automated extractions of return flow data toward your ESG reporting tool or directly into your CSRD dashboards. The data is there: recycling rates, reconditioned volumes, percentage of recycled content used in production. The missing piece is usually just the configuration to surface it in the right format.
To go further, see our operational guide to the Digital Product Passport and industrial ERP, our CSRD and ERP guide for the ESRS E5 reporting dimension, and our sustainable ERP comparison if you are in a selection or renewal phase.
