Multistage Simulations of the GE90 Turbine

Author:

Turner Mark G.1,Vitt Paul H.2,Topp David A.1,Saeidi Sohrab1,Hunter Scott D.1,Dailey Lyle D.1,Beach Timothy A.3

Affiliation:

1. GE Aircraft Engines, Cincinnati, OH

2. ASE Technologies, Cincinnati, OH

3. Dynacs Engineering Co., Cleveland, OH

Abstract

The average passage approach has been used to analyze three multistage configurations of the GE90 turbine. These are a high pressure turbine rig, a low pressure turbine rig and a full turbine configuration comprising 18 blade rows of the GE90 engine at takeoff conditions. Cooling flows in the high pressure turbine have been simulated using source terms. This is the first time a dual-spool cooled turbine has been analyzed in 3D using a multistage approach. There is good agreement between the simulations and experimental results. Multistage and component interaction effects are also presented. The parallel efficiency of the code is excellent at 87.3% using 121 processors on an SGI Origin for the 18 blade row configuration. The accuracy and efficiency of the calculation now allow it to be effectively used in a design environment so that multistage effects can be accounted for in turbine design.

Publisher

American Society of Mechanical Engineers

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