2021
DOI: 10.3390/app11010422
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Development of a Throughflow-Based Simulation Tool for Preliminary Compressor Design Considering Blade Geometry in Gas Turbine Engine

Abstract: Gas turbine engines are highly intricate machines, and every component of them is closely associated with one another. In the traditional engine developing process, vast experiment tests are needed. To reduce unnecessary trials, a whole gas turbine engine simulation is extremely needed. For this purpose, a compressor simulation tool is now developed. Considering the inherent drawbacks of 0D analysis and 3D CFD (Computational Fluid Dynamics) calculation, the 2D throughflow method is an indispensable tool. Based… Show more

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Cited by 12 publications
(4 citation statements)
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“…In order to further evaluate the ability of FLAS to solve real-world applications, FLAS is compared with other well-performing MAs on many different engineering design problems. Two types of optimization problems are selected: (1) Box-constrained problems have only unique constraints on the upper and lower bounds of the variables, including gear transmission system design [44], and gas transmission compressor design [45]. (2) General-constrained problems have more complex constraints and include reducer design [46], three-bar truss design [47], piston rod optimization design [48], pressure vessel design [49], and stepped cone pulley problem [50].…”
Section: Engineering Examplesmentioning
confidence: 99%
“…In order to further evaluate the ability of FLAS to solve real-world applications, FLAS is compared with other well-performing MAs on many different engineering design problems. Two types of optimization problems are selected: (1) Box-constrained problems have only unique constraints on the upper and lower bounds of the variables, including gear transmission system design [44], and gas transmission compressor design [45]. (2) General-constrained problems have more complex constraints and include reducer design [46], three-bar truss design [47], piston rod optimization design [48], pressure vessel design [49], and stepped cone pulley problem [50].…”
Section: Engineering Examplesmentioning
confidence: 99%
“…Studies have shown that the S-A model is an excellent engineering tool for predicting turbulence characteristics. NUMECA's solver is FINE/Turbo, which is based on the element-centric finite volume method and is associated with Jameson's central scheme as spatial discretization and the explicit Runge-Kutta time integration method [13]. The mass flow, velocity In order to effectively capture complex 3D flow patterns in the flow channel, HO topology is used in the rotor channel.…”
Section: Numerical Modelmentioning
confidence: 99%
“…A time-marching finite volume method is chosen to solve equations. The validation of CAM by NASA Rotor 67 and a high-loaded low speed fan TA36 can be found in references [31,32]. More details for CAM can also be reviewed in references [33,34].…”
Section: Numerical Model and Research Objectmentioning
confidence: 99%