Designing and Testing an OEM Closed-Loop System for Automotive Component Recovery

Automotive component recovery spans OEM networks, independent workshops, remanufacturers, dismantlers, and recyclers, but fragmented information and coordination can leave recovery opportunities unrealized. This study proposes an OEM-governed closed-loop system that centralizes lifecycle information and governance while preserving technician decision rights in local recovery and avoiding unnecessary physical centralization. Specialist, safety-critical, and aggregation-dependent cases are selectively escalated. Based on a literature baseline, the architecture is evaluated using economic and environmental threshold models, component archetypes, and stress tests. In an illustrative 1,000-event scenario, OEM recovery increases by 350 events but total physical recovery by only 250, illustrating that OEM capture alone overstates additional recovery when existing routes are displaced. System viability depends on additional recovery achieved, value already created outside the OEM pathway, and coordination burden. Environmental performance also depends on route-specific transport, processing, recovery yield, and coordination. The framework identifies economic, environmental, operational, and governance boundaries requiring empirical validation.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-17
DOI
https://doi.org/10.5281/zenodo.23429660
Primary Topic
Sustainable Supply Chain Management
Type
preprint
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preprint

Designing and Testing an OEM Closed-Loop System for Automotive Component Recovery

Temidayo Abraham Durodola
Zenodo (CERN European Organization for Nuclear Research)
Sustainable Supply Chain Management
preprint

Designing and Testing an OEM Closed-Loop System for Automotive Component Recovery

Temidayo Abraham Durodola
preprint en

Abstract

Automotive component recovery spans OEM networks, independent workshops, remanufacturers, dismantlers, and recyclers, but fragmented information and coordination can leave recovery opportunities unrealized. This study proposes an OEM-governed closed-loop system that centralizes lifecycle information and governance while preserving technician decision rights in local recovery and avoiding unnecessary physical centralization. Specialist, safety-critical, and aggregation-dependent cases are selectively escalated. Based on a literature baseline, the architecture is evaluated using economic and environmental threshold models, component archetypes, and stress tests. In an illustrative 1,000-event scenario, OEM recovery increases by 350 events but total physical recovery by only 250, illustrating that OEM capture alone overstates additional recovery when existing routes are displaced. System viability depends on additional recovery achieved, value already created outside the OEM pathway, and coordination burden. Environmental performance also depends on route-specific transport, processing, recovery yield, and coordination. The framework identifies economic, environmental, operational, and governance boundaries requiring empirical validation.

Zenodo (CERN European Organization for Nuclear Research)
Responsible consumption and production, Industry, innovation and infrastructure
Sustainable Supply Chain Management
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