1.5级高压涡轮的共轭传热分析

Young-Seok Kang, Heeyoon Chung, D. Rhee, Kapsik Son, Shaun S. H. Kim, Byeong-Eun Lim, Chulju Ahn, Bokown Lee
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引用次数: 0

摘要

燃气轮机热段冷却性能的评估对燃气轮机的发展起着至关重要的作用。具体来说,高压涡轮冷却性能的准确预测涉及到内部冷却和气膜冷却机制之间复杂的相互作用,这是一个重大的技术挑战。为了应对这一技术挑战,已经设计了几种方法来预测高压涡轮的冷却性能。其中,共轭传热分析方法无需任何经验公式,可以同时模拟固体和流体领域来预测涡轮叶片表面温度。本研究对1000船级燃气轮机内的1.5级高压涡轮进行了共轭传热分析,目的是评估外部和内部冷却方式的冷却性能及其对涡轮流道内主流的影响。整体冷却效果分析表明,叶片
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Conjugate Heat Transfer Analysis for 1.5 Stage High-Pressure Turbine
The evaluation of cooling performance in the hot sections of gas turbines plays a critical role in the gas turbine development. Specifically, accurate prediction of cooling performance in the high-pressure turbine, which involves complex interactions between internal cooling and film cooling mechanisms, poses a significant technical challenge. Several methodologies have been devised to predict the cooling performance in the high-pressure turbine, to address this technical challenge. Among these approaches, the conjugate heat transfer analysis method can predict the turbine blade surface temperatures by simulating both solid and fluid domains without any empirical formulations. In this study, a conjugate heat transfer analysis on a 1.5-stage high-pressure turbine within a 1,000 shp class gas turbine has been conducted, with the objective of assessing the cooling performance of both external and internal cooling methods and their impacts on the main flow within the turbine flow path. The overall cooling effectiveness analysis demonstrated that blade
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