Device Fault Prediction Model based on LSTM and Random Forest

Jing Xu; Yongbo Zhang

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arXiv · 2403.05179

Device Fault Prediction Model based on LSTM and Random Forest

Jing Xu·Yongbo Zhang

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Abstract

The quality of power grid equipment forms the material foundation for the safety of the large power grid. Ensuring the quality of equipment entering the grid is a core task in material management. Currently, the inspection of incoming materials involves the generation of sampling plans, sampling, sealing, sample delivery, and testing. Due to the lack of a comprehensive control system and effective control measures, it is not possible to trace the execution process of business operations afterward. This inability to trace hampers the investigation of testing issues and risk control, as it lacks effective data support. Additionally, a significant amount of original record information for key parameters in the testing process, which is based on sampling operation standards, has not been effectively utilized. To address these issues, we conduct researches on key monitoring technologies in the typical material inspection process based on the Internet of Things (IoT) and analyze the key parameters in inspection results. For purpose of complete the above tasks, this paper investigates the use of Long Short-Term Memory (LSTM) algorithms for quality prediction in material equipment based on key inspection parameters. In summary, this paper aims to provide professional and reliable quality data support for various business processes within the company, including material procurement, engineering construction, and equipment operation.

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Jing Xu, Yongbo Zhang. 2024-03-08. Device Fault Prediction Model based on LSTM and Random Forest. https://arxiv.org/abs/2403.05179

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