Outline

Ingegneria Sismica

Ingegneria Sismica

Application of deep learning model in Operating data analysis of vacuum pressure equipment

Author(s): Lei Zhang1, Bingding Li1, Lingtao Kong1, Junxi Han2
1Power Workshop, Baoji Cigarette Factory, China Tobacco Shaanxi Industrial Co., Ltd., Baoji 721013, Shaanxi, China
2Baoji Cigarette Factory, China Tobacco Shaanxi Industrial Co., Ltd., Baoji 721013, Shaanxi, China
Zhang, Lei. et al “Application of deep learning model in Operating data analysis of vacuum pressure equipment.” Ingegneria Sismica Volume 43 Issue 1: 1-20, doi:10.65102/is2026295.

Abstract

Aiming at the problems of strong multivariable coupling, obvious control lag, scattered abnormal symptoms and difficult to identify by traditional methods in the operation process of environmental control equipment in vacuum rehumidification section, this paper takes K3-K4 (ZK-120) combined air conditioning unit of Baoji Cigarette Factory as the object. Relying on the temperature and humidity, pressure difference, valve opening, inverter current, frequency and power data collected by PLC, PROFINET communication and central control monitoring link, a deep learning analysis model combining timing feature extraction, attention enhancement and multi-dimensional feature fusion is constructed. The model takes operation state identification and key variable trend prediction as dual task outputs, which can describe the dynamic correlation between temperature and humidity regulation, fan load change and actuator response in a continuous time window. Experimental results show that the Accuracy, Recall and F1 of the proposed model in the state recognition task reach 95.8%, 94.6% and 94.9%, respectively. The RMSE and MAE of the model in the trend prediction task are 0.118 and 0.087, respectively, and the average amount of warning advance reaches 2.9 hours. The research shows that the deep learning method can effectively improve the accuracy and foresight of the operation data analysis of vacuum pressure equipment, and provide computational support for equipment early warning, operation and maintenance decision- making and stable operation.

 

Keywords
Constrained PPO algorithm; Virtual entrepreneurship simulation; Risk control decision; Reinforcement learning

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