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AI-Driven Vulnerability Assessment and Early Warning Mechanism for Semiconductor Supply Chain Resilience

Abstract

This article shows a comprehensive AI-controlled early warning system to detect and predict vulnerabilities in the semiconductor industry supply chain. The study integrates advanced machine learning techniques into online scientific approaches to develop a solid framework for the risk assessment and mitigation of the supply chain. The system architecture includes several data streams, including real-time sensor information, delivery network information, and market indicators that have been treated with a hybrid model by combining graph nerve networks (GNN) with long short-term memory (LSTM) networks. The system achieved 94.3% accuracy in predicting disruption impacts, with an average lead time of 15.3 days for major events. The research methodology included extensive validation across 158 semiconductor manufacturers over 18 months, demonstrating a 64% reduction in disruption impact duration and generating cost savings of $37.2 million. The hybrid pattern architecture outperformed always with the precision value of 0.948 and back at 0.951. This study makes sense of the use of AI for the use of realistic habits and teachings in the strings together. Activity Meeting Services Give Information for Administrative Development Development of Early Property Reminders.

Keywords

Supply Chain Risk Management, Machine Learning, Network Science, Early Warning System

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