Design and Simulation of a CAN Type Combustion Chamber

Mohammed Balla Abdelwahid, H. M. Taha, Amar Mustafa Suliman, Hozaifa Mohammed Nazir, A. Ali
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Abstract

The design of high-performance combustion chambers for gas turbine engines is considered one of the difficult tasks for engineers. This study presents the design of a can-type combustion chamber. The parametric cycle analysis of a low bypass turbofan engine (AL-31F) was provided to obtain the air properties at the combustor inlet. Empirical equations are used to determine the dimensions of the combustion chamber. GAMBIT software was used to create the combustor model and the simulation was accomplished using ANSYS software. This CFD code is a steady, quasi-three-dimensional Reynolds Averaged Navier-Stokes (RANS) solver. K-w viscous model and non-premixed combustion model are used. Presented the results of cycle analysis of the turbofan engine and the dimensions of combustor components and cooling holes. An analysis of the distribution of temperature, pressure, and velocity throughout the combustion chamber is provided. The obtained results were compared for analytical and computational approaches and suggested with previous studies.
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CAN型燃烧室的设计与仿真
高性能燃气涡轮发动机燃烧室的设计一直是困扰工程技术人员的难题之一。本文研究了一种罐式燃烧室的设计。对某低涵道比涡扇发动机(AL-31F)进行了参数循环分析,获得了燃烧室入口空气特性。利用经验方程确定了燃烧室的尺寸。利用GAMBIT软件建立燃烧室模型,利用ANSYS软件进行仿真。这个CFD代码是一个稳定的准三维Reynolds平均Navier-Stokes (RANS)求解器。采用K-w粘性模型和非预混燃烧模型。介绍了涡扇发动机的循环分析结果以及燃烧室部件和冷却孔的尺寸。对整个燃烧室的温度、压力和速度分布进行了分析。将所得结果与分析方法和计算方法进行了比较,并与以往的研究结果相一致。
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