Integration of Technology Capability for Performance Diagnostics of MS7001EA Using PYTHIA

Dieni Indarti, E. Osigwe, Yi-Guang Li, Dody Widyantoro
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Abstract

Gas turbine components are susceptible to degradation during operations; hence, the identification of the engine condition is really important for the gas turbine users. To this end, a comprehensive adaptive diagnostic tool is an important step to monitoring the engine health condition and planning appropriate maintenance actions, thereby increasing the availability and reliability of the unit, and at the same time reducing the operation and maintenance expenses. In this paper, the capability of PYTHIA; a computer software technology for engine diagnostic purpose using a non-linear gas path analysis was explored on GE MS7001EA industrial heavy duty gas turbine during a plot period of 12,000 hours. The method used in this paper was to adapt an accurate engine performance model from the real engine historical data readings, and by implicating multiple component degradation parameters onto the diagnostic tool; which represents the possible phenomena in the real engine operation period. The adaptive gas path analysis was used to identify the level of degradation or health indices of the gas turbine at the module level and its degraded performance compared with the actual engine data trending. The results obtained indicated the capability of PYTHIA to successfully adapt real engine data and detect fault patterns in response to implanted faults of selected measurement set during engine operation period. The deviations between the predicted and measured values showed a satisfactory result with a root mean square error (RMS) ≤ 0.004 and Gas Path Analysis index value ≥ 0.996. The component parameter degradation during the 12000 hours engine operation was detected, indicating a decrease in flow capacity by 2.1% for compressor and turbine by 2.8%.
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基于PYTHIA的MS7001EA性能诊断技术能力集成
燃气轮机部件在运行过程中容易退化;因此,对燃气轮机用户来说,发动机状态的识别是非常重要的。为此,一个全面的自适应诊断工具是监测发动机健康状况和计划适当维护行动的重要步骤,从而提高机组的可用性和可靠性,同时降低运维费用。本文主要研究了PYTHIA的性能;以GE MS7001EA工业重型燃气轮机为研究对象,进行了12000小时的非线性气路分析,探索了发动机诊断的计算机软件技术。本文采用的方法是根据真实发动机历史数据读数,采用精确的发动机性能模型,并将多个部件退化参数隐含到诊断工具中;代表了发动机实际运行期间可能出现的现象。采用自适应气路分析方法在模块级识别燃气轮机的退化程度或健康指标,并将其退化性能与实际发动机数据趋势进行比较。结果表明,该方法能够较好地适应发动机实际数据,并根据所选测量集在发动机运行期间植入的故障进行故障模式检测。预测值与实测值偏差较好,均方根误差(RMS)≤0.004,气路分析指标值≥0.996。在12000小时的发动机运行过程中,检测到部件参数的退化,表明压气机的流量下降了2.1%,涡轮的流量下降了2.8%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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