Hardware Development for the Controlled Fault Injection into a Turbofan Engine Air-Bleed Valve

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George E. Gorospe Donald L. Simon Kai F. Goebel

Abstract

Gas path fault diagnostics assists operators in determining, and managing the health of gas turbine engines. Engine data depicting fault progression under realistic operating conditions is useful for the maturation of these diagnostic methods. In this paper, we present hardware created to inject a progressive fault in an air bleed valve of a high bypass turbofan engine during on-wing engine testing. The developed hardware interrupts and overrides the engine control computer’s command of the valve and allows for the nondestructive, progressive off-schedule operation of the air bleed valve. Numeri- cal simulation results based on NASA’s Commercial Modular Aero-Propulsion System Simulation 40k are presented to illustrate representative changes in measured engine parameters that can be expected during such an experiment.

How to Cite

E. Gorospe, G. ., L. Simon, D. ., & F. Goebel, K. . (2015). Hardware Development for the Controlled Fault Injection into a Turbofan Engine Air-Bleed Valve. Annual Conference of the PHM Society, 7(1). https://doi.org/10.36001/phmconf.2015.v7i1.2546
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Keywords

Turbofan engine, Fault injection

References
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Section
Poster Presentations