Design and performance of a high-pressure-ratio, highly loaded axial-flow transonic compressor space
GEORGE W. LEWIS, L. Reid, E. R. Tysl
Abstract
GEORGE W. LEWIS, L. Reid, E. R. Tysl
Abstract
A 50-cm-diam. axial-flow transonic compressor stage with multiple-circular-arc blades was designed and tested. At design speed, a rotor peak efficiency of 0.85 occurred at an equivalent weight flow of 29.3 kg/sec. Stage peak efficiency was 0.79 at 28.6 kg/sec. Stage total pressure ratio at peak efficiency was 1.84. The stall margin at design speed was 5 percent. Rotor and stator losses were higher than predicted. The stator choked at design flow.
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A 50-cm-diam. axial-flow transonic compressor stage with multiple-circular-arc blades was designed and tested. At design speed, a rotor peak efficiency of 0.85 occurred at an equivalent weight flow of 29.3 kg/sec. Stage peak efficiency was 0.79 at 28.6 kg/sec. Stage total pressure ratio at peak efficiency was 1.84. The stall margin at design speed was 5 percent. Rotor and stator losses were higher than predicted. The stator choked at design flow.
Key concepts: Transonic, Axial compressor, Overall pressure ratio, Gas compressor, Stall (fluid mechanics), Stator, Mechanics, Rotor (electric)