Accurate spare parts prediction is crucial in field service operations for the maintenance and repair of household appliances, where missing components frequently lead to repeated technician visits, increased costs, and diminished service quality. In this context, we present the DL-SPP (Deep Learning Spare Part Prediction) system that predicts the set of spare parts likely needed before the technician’s intervention, using both structured appliance metadata and semantic representations of fault descriptions. The prediction task is framed as a multi-label classification problem, where the model learns to associate appliance types and fault reports with the components used in past repairs through a transformer-based architecture. Evaluated on a real-world dataset of repair tasks, DL-SPP achieves up to a 56% reduction in repeated field service technician visits, outperforming a state-of-the-art baseline that achieves 50%. These results highlight the DL-SPP system as a scalable and effective solution for enhancing repair planning and inventory optimization in operational field service contexts.

DL-SPP: A Deep Learning System for Spare Parts Prediction in Field Service Operations / Schiavo, A., Renda, A., Ducange, P., Marcelloni, F.. - (2025), pp. 60-65. (52nd Symposium on Operational Research (SYMOPIS 2025) Palić, Serbia 7–10 September 2025) [10.5281/zenodo.17533277].

DL-SPP: A Deep Learning System for Spare Parts Prediction in Field Service Operations

Renda, Alessandro
Secondo
;
2025-01-01

Abstract

Accurate spare parts prediction is crucial in field service operations for the maintenance and repair of household appliances, where missing components frequently lead to repeated technician visits, increased costs, and diminished service quality. In this context, we present the DL-SPP (Deep Learning Spare Part Prediction) system that predicts the set of spare parts likely needed before the technician’s intervention, using both structured appliance metadata and semantic representations of fault descriptions. The prediction task is framed as a multi-label classification problem, where the model learns to associate appliance types and fault reports with the components used in past repairs through a transformer-based architecture. Evaluated on a real-world dataset of repair tasks, DL-SPP achieves up to a 56% reduction in repeated field service technician visits, outperforming a state-of-the-art baseline that achieves 50%. These results highlight the DL-SPP system as a scalable and effective solution for enhancing repair planning and inventory optimization in operational field service contexts.
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11368/3124581
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