工业燃气轮机压缩机旋转失速预测研究

S. Krishnababu
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引用次数: 0

摘要

采用全环空和单通道混合计算域,研究了工业燃气轮机压气机旋转失速的计算方法。本研究的目的是展示在设计周期中使用大规模非定常计算和更快的周转时间来开发和评估几种可变导叶计划和/或排气设置。这意味着后续的发动机测试活动可以在可变导叶计划数量和/或处理排气设置方面显著降低测试矩阵尺寸,从而减少总体开发时间和成本。在之前的压气机台架试验(Krishnababu等[1])中测量和表征的旋转失速通过使用TurboStream进行大规模非定常计算成功预测。预测的失速单元数和速度与试验数据吻合较好。将所验证的方法应用于某新型燃气涡轮发动机压气机开发中的旋转失速预测和缓解。使用这种方法,可以定义确保无失速运行的泄油控制系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
On the Prediction of Rotating Stall in an Industrial Gas Turbine Compressor
An investigation is presented into the computation of rotating stall in an industrial gas turbine compressor using a hybrid whole annulus and single passage computational domain. The objective of this investigation is to demonstrate the use of large-scale unsteady computations with quicker turn-around times in the design cycle to develop and evaluate several variable guide vane schedules and/or bleed settings. This means that subsequent engine test campaign could be carried out with significantly lower test matrix size in terms of the number of variable guide vane schedules and/or the handling bleed settings thus reducing the overall development time and cost. Rotating stall that was measured and characterised during a previous compressor rig test (Krishnababu, et al. [1]) were successfully predicted by large-scale unsteady computations using TurboStream. The predicted number of stall cells and their speed agreed closely with the test data. The methodology validated was applied to predict and mitigate the rotating stall in the development of a compressor for a new gas turbine engine. Using this approach, it was possible to define bleed control system that ensured stall free operation.
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