Unsteady stator/rotor interaction
Philip C. E. Jorgenson, Rodrick V. Chima
Abstract
Open-access reader
Philip C. E. Jorgenson, Rodrick V. Chima
Abstract
Open-access reader
The major thrust of the computational analysis of turbomachinery to date has been the steady-state solution of isolated blades using mass-averaged inlet and exit conditions. Unsteady flows differ from the steady solution due to interaction of pressure waves and wakes between blade rows. To predict the actual complex flow conditions one must look at the time accurate solution of the entire turbomachine. Three quasi-three-dimensional Euler and thin layer Navier-Stokes equations are solved for unsteady turbomachinery flows.
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The major thrust of the computational analysis of turbomachinery to date has been the steady-state solution of isolated blades using mass-averaged inlet and exit conditions. Unsteady flows differ from the steady solution due to interaction of pressure waves and wakes between blade rows. To predict the actual complex flow conditions one must look at the time accurate solution of the entire turbomachine. Three quasi-three-dimensional Euler and thin layer Navier-Stokes equations are solved for unsteady turbomachinery flows.
Key concepts: Turbomachinery, Mechanics, Rotor (electric), Unsteady flow, Steady state (chemistry), Stator, Flow (mathematics), Euler equations