Predictive Maintenance for Retail Supply Chain Equipment Using Machine Learning Models
Keywords:
predictive maintenance, machine learning, retail supply chain, equipment failure prediction, operational efficiency, deep learning, anomaly detectionAbstract
Machine learning (ML) predictive maintenance (PdM) has improved retail supply chain equipment and infrastructure. Researchers study improved machine learning models for equipment failure prediction. To reduce downtime, enhance maintenance, and save money. Studying how machine learning (ML) might prevent supply chain issues. Forecasting uses regression analysis, decision trees, SVMs, anomaly clustering, and deep learning. The competitive retail market demands system reliability and durability, which predictive models give.
The study begins with handling complex supply chain technologies such conveyor systems, automatic sorters, refrigerated units, and warehouse robots. Modern retail supply networks' high operating demands and quick throughput compound these issues. ML algorithms can help professionals build accurate prediction models from huge real-time and historical operational data. These models learn from vibration, temperature, power use, and other sensors. They may notice early issues and unsuccessful adjustments. Feature engineering and dimensionality reduction help identify the most relevant expected elements impacting maintenance needs and improve model accuracy and usability.
This study uses gradient boosting machines (XGBoost, LightGBM) and neural network topologies (recurrent neural networks, long short-term memory networks) to assess equipment-related temporal data. Researchers research hybrid models that use several computing methods to improve forecasts. PdM ensures high-quality inputs with reliable data collection, preprocessing, and feature extraction. Real-time analysis, which monitors and updates virtual representations of physical assets to forecast and simulate performance, may be more effective now that predictive models can be synchronised with digital twin technology.
Equipment downtime may be reduced via predictive maintenance. Resource utilisation, energy efficiency, and supply chain asset life may improve. The study examines retail concerns including applying ML models in large fulfilment operations and IoT devices to monitor critical infrastructure. Many unplanned outages, operating disruptions, and repair and maintenance expenditures were saved in the case studies. ML enhances strategic supply chain management. Enhanced organisational resilience.
Paper addresses ML's predictive maintenance difficulties despite its advantages. We examine data integration, model training, and ML solution growth. A reliable infrastructure that processes massive datasets quickly is needed. Protecting critical operational data needs cybersecurity. Explainable AI (XAI) model simplification may increase stakeholder confidence. Adoption and compliance in sensitive data businesses depend on this.
This research suggests edge computing and 5G networks for predictive maintenance. Real-time data processing near equipment sources will speed up and enhance predictive evaluations. Another innovation is incremental learning for model changes and retraining. ML models can adapt to operational changes and add data sources. Human-AI hybrid collaboration makes more complicated decisions than machine learning by combining human experience and predictive insights.