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Shock Wave Boundary Layer Interaction on Suction Side of Compressor Profile in Single Passage Test Section 被引量:4

Shock Wave Boundary Layer Interaction on Suction Side of Compressor Profile in Single Passage Test Section
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摘要 The shock wave boundary layer interaction on the suction side of transonic compressor blade is one of the main objectives of TFAST project(Transition Location Effect on Shock Wave Boundary Layer Interaction).In order to investigate the flow structure on the suction side of a profile,a design of a generic test section in linear transonic wind tunnel was proposed.The experimental and numerical results for the flow structure investigations are shown for the flow conditions as the existing ones on the suction side of the compressor profile.Near the sidewalls the suction slots are applied for the corner flow structure control.It allows to control the Axial Velocity Density Ratio(AVDR),important parameter for compressor cascade investigations.Numerical results for Explicit Algebraic Reynolds Stress Model with transition modeling are compared with oil flow visualization,schlieren and Pressure Sensitive Paint.Boundary layer transition location is detected by Temperature Sensitive Paint. The shock wave boundary layer interaction on the suction side of transonic compressor blade is one of the main objectives of TFAST project(Transition Location Effect on Shock Wave Boundary Layer Interaction).In order to investigate the flow structure on the suction side of a profile,a design of a generic test section in linear transonic wind tunnel was proposed.The experimental and numerical results for the flow structure investigations are shown for the flow conditions as the existing ones on the suction side of the compressor profile.Near the sidewalls the suction slots are applied for the corner flow structure control.It allows to control the Axial Velocity Density Ratio(AVDR),important parameter for compressor cascade investigations.Numerical results for Explicit Algebraic Reynolds Stress Model with transition modeling are compared with oil flow visualization,schlieren and Pressure Sensitive Paint.Boundary layer transition location is detected by Temperature Sensitive Paint.
出处 《Journal of Thermal Science》 SCIE EI CAS CSCD 2015年第6期510-515,共6页 热科学学报(英文版)
基金 supported by 7 EU framework project project of acronym TFAST(Transition Location Effect on Shock Wave Boundary Layer Interaction) supported in part by PL-Grid Infrastructure Numerical simulations are carried out in Academic Computer Centre(TASK)in Gdansk
关键词 边界层转捩 压气机叶片 相互作用 激波 试验段 单通道 跨音速风洞 外形 transonic flow,shock wave,laminar-turbulent transition,compressor profile
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