Numerical Investigation on Separation Efficiency of a Novel Hybrid Engine Air-Particle Separator

IF 1.1 4区 工程技术 Q4 MECHANICS Journal of Applied Fluid Mechanics Pub Date : 2023-09-01 DOI:10.47176/jafm.16.09.1792
S. Ghodbane, A. Beniaiche, A. Belkallouche, B. Janssens
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Abstract

This paper proposes a novel design for a hybrid engine air-particle separator filter (HEAPS) that combines the vortex tube separator (VTS) with the inertial particle separator (IPS) to enhance separation efficiency. Helicopters often operate in harsh environments, such as deserts, and landing on unprepared runways poses a severe risk to turboshaft engines due to the ingestion of dust and sand. This can result in significant damage to the engine's rotating components, impacting its life, reliability, and performance. To protect the engine from erosion and damage, an engine air particle separator system (EAPS) is installed in the engine inlet. In this study, a comparative numerical simulation was conducted between the hybrid filter and the VTS using the commercial software ANSYS Fluent. The Reynolds-averaged Navier–Stokes equations (RANS) were used to simulate incompressible turbulent flow, and the trajectory of particles was tracked using the Discrete Phase Model (DPM). Particle trajectories and separation efficiency were analyzed for different particle sizes, inlet velocities, and bypass mass flow ratios between the scavenge channel and the core engine channel. The results show that the hybrid design provides excellent separation efficiency, with a recovery efficiency of over 97%.
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新型混合动力发动机空气颗粒分离器分离效率的数值研究
本文提出了一种混合发动机空气颗粒分离器过滤器(HEAPS)的新设计,该过滤器将涡流管分离器(VTS)与惯性颗粒分离器(IPS)相结合,以提高分离效率。直升机通常在沙漠等恶劣环境中运行,由于吸入灰尘和沙子,在没有准备的跑道上降落对涡轴发动机构成严重风险。这可能会对发动机的旋转部件造成严重损坏,影响其寿命、可靠性和性能。为了保护发动机免受侵蚀和损坏,发动机进气口安装了发动机空气颗粒分离器系统(EAPS)。在本研究中,使用商业软件ANSYS Fluent对混合滤波器和VTS进行了比较数值模拟。雷诺平均Navier-Stokes方程(RANS)用于模拟不可压缩湍流,并使用离散相模型(DPM)跟踪颗粒的轨迹。分析了扫气通道和堆芯发动机通道之间不同颗粒尺寸、入口速度和旁通质量流量比的颗粒轨迹和分离效率。结果表明,混合设计提供了优异的分离效率,回收率超过97%。
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来源期刊
Journal of Applied Fluid Mechanics
Journal of Applied Fluid Mechanics THERMODYNAMICS-MECHANICS
CiteScore
2.00
自引率
20.00%
发文量
138
审稿时长
>12 weeks
期刊介绍: The Journal of Applied Fluid Mechanics (JAFM) is an international, peer-reviewed journal which covers a wide range of theoretical, numerical and experimental aspects in fluid mechanics. The emphasis is on the applications in different engineering fields rather than on pure mathematical or physical aspects in fluid mechanics. Although many high quality journals pertaining to different aspects of fluid mechanics presently exist, research in the field is rapidly escalating. The motivation for this new fluid mechanics journal is driven by the following points: (1) there is a need to have an e-journal accessible to all fluid mechanics researchers, (2) scientists from third- world countries need a venue that does not incur publication costs, (3) quality papers deserve rapid and fast publication through an efficient peer review process, and (4) an outlet is needed for rapid dissemination of fluid mechanics conferences held in Asian countries. Pertaining to this latter point, there presently exist some excellent conferences devoted to the promotion of fluid mechanics in the region such as the Asian Congress of Fluid Mechanics which began in 1980 and nominally takes place in one of the Asian countries every two years. We hope that the proposed journal provides and additional impetus for promoting applied fluids research and associated activities in this continent. The journal is under the umbrella of the Physics Society of Iran with the collaboration of Isfahan University of Technology (IUT) .
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