考虑热应力的PSO-SA混合优化方法确定热障涂层最优厚度

Ali Ghaseminezhad Koushali, M. Nazari, Masoud Roudneshin
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引用次数: 0

摘要

涡轮发动机的涡轮入口温度已经提高,以提高熟练程度。因此,为了保护经历恶劣使用条件的热截面元件,需要使用热障涂层(TBC)。开发TBC系统和提高性能是延长寿命的持续努力。因此,人们进行了各种研究,以找到最佳的性能和尺寸。本文采用一种新型的混合粒子群和模拟退火随机优化方法,确定了中间键合层(BC)和面漆(TC)的最佳厚度。在热疲劳、蠕变和氧化引起的热应力约束下,获得了最佳厚度,同时在20次循环中使重量最小化。BC和TC厚度分别为50 μm和450 μm。采用平面应力条件进行理论和有限元应力分析,并对结果进行了比较。收稿日期:13-06-2019收稿日期:02-07-2019发布日期:14-10-2019
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Determination of Thermal Barrier Coatings Layers Optimum Thickness via PSO-SA Hybrid Optimization Method concerning Thermal Stress
Turbine entry temperature of turbo-engines has been increased to improve proficiency. Consequently, protecting the hot section elements experiencing aggressive service conditions necessitates the applying of thermal barrier coatings (TBC). Developing TBC systems and improving performance is an ongoing endeavour to prolong the lifetime. Thus, various studies have been conducted to find the optimum properties and dimensions. In this paper, the optimum thickness of intermediate bond coat (BC) and top coat (TC) have been determined via a novel hybrid particle swarm and simulated annealing stochastic optimization method. The optimum thicknesses have been achieved under the constraint of thermal stress induced by thermal fatigue, creep, and oxidation in the TC while minimizing the weight during twenty cycles. The solutions for BC and TC thicknesses are respectively 50 μm and 450 μm. Plane stress condition has been adopted for theoretical and finite element stress analysis, and the results are successfully compared. Received on 13-06-2019 Accepted on 02-07-2019 Published on 14-10-2019
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