Completed Clean Energy Computing & AI

ODIN - Optimisation and Diagnostics for Innovative Networks

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AI plain-English summary

Engineers at high-voltage direct current halls currently spend hours manually sifting through robot monitoring data, looking for signs of trouble. This labour-intensive process cannot easily spot emerging trends or compare current readings against normal operating conditions. As the UK pushes to expand its high-voltage direct current network—a critical part of transmitting renewable energy over long distances—the sheer volume of monitoring data will overwhelm manual methods. The ODIN project replaces that human slog with automated machine learning and artificial intelligence tools that continuously interpret the data stream. If successful, the system will detect subtle changes in asset behaviour long before they become failures, improving the reliability and resilience of the electricity grid. That matters because high-voltage direct current links are the backbone of the net-zero energy transition, connecting offshore wind farms and intercontinental power cables to where the electricity is needed. The research does not aim to discover new physics or materials; it applies existing analytics to a specific industrial bottleneck. The payoff is operational: fewer outages, lower maintenance costs, and a grid that can handle more renewable power without breaking down.

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The ODIN Project aims to develop automated methods for interpreting and diagnosing data collected from continuous monitoring of robots operating in high-voltage direct current halls. By leveraging modern advanced analytics, including machine learning and artificial intelligence, the Project will transition from the current labour-intensive process of manual data assessment, which lacks trend analysis for comparing against normal operating conditions. Through the application of artificial intelligence and machine learning, ODIN will uncover novel insights into high-voltage direct current asset behaviour, thereby improving operational efficiency, reliability and resilience to support the transition to a net-zero energy network.

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