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2004
DOI: 10.1016/j.conengprac.2003.09.011
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Identification of sensor faults on turbofan engines using pattern recognition techniques

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Cited by 35 publications
(11 citation statements)
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“…Many scholars have conducted a lot of research on such issues deeply, and there are a larger number of research results in the literature. Based on the KF, different neural networks are used to diagnose sensor faults of aerospace control systems [10][11][12]; Aretakis uses geometric pattern recognition technology and KF algorithm to solve the problem of slow drift in sensors [13]; a set of linear Kalman filter are used to diagnose sensor faults after linearization at operating point of the system [14]; a novel Kalman filter is designed to diagnose multi-sensor faults when systems existing colored noise [15]; in order to solve the non-Gaussian distribution problem of wind speed and measured noise in wind power generation systems, a novel filtering algorithm is proposed to identify and isolate the sensor fault [16]; a set of extended Kalman filter are used to diagnose attitude sensor faults [17]. Aiming to the problem of actuator faults in control systems, an improved multiple fading factor strong-tracking nonlinear filter algorithm is proposed to diagnose stuck-at faults and swing faults of the actuator [18]; in order to solve the problem of flywheel faults in satellite attitude control systems, a two-stage EKF algorithm is designed [19]; the actuator and sensor fault are regarded as system states, system states are optimized through the optimal and robust three-stage Kalman filter, and finally achieve the reconstruction of system faults [20].…”
Section: Introductionmentioning
confidence: 99%
“…Many scholars have conducted a lot of research on such issues deeply, and there are a larger number of research results in the literature. Based on the KF, different neural networks are used to diagnose sensor faults of aerospace control systems [10][11][12]; Aretakis uses geometric pattern recognition technology and KF algorithm to solve the problem of slow drift in sensors [13]; a set of linear Kalman filter are used to diagnose sensor faults after linearization at operating point of the system [14]; a novel Kalman filter is designed to diagnose multi-sensor faults when systems existing colored noise [15]; in order to solve the non-Gaussian distribution problem of wind speed and measured noise in wind power generation systems, a novel filtering algorithm is proposed to identify and isolate the sensor fault [16]; a set of extended Kalman filter are used to diagnose attitude sensor faults [17]. Aiming to the problem of actuator faults in control systems, an improved multiple fading factor strong-tracking nonlinear filter algorithm is proposed to diagnose stuck-at faults and swing faults of the actuator [18]; in order to solve the problem of flywheel faults in satellite attitude control systems, a two-stage EKF algorithm is designed [19]; the actuator and sensor fault are regarded as system states, system states are optimized through the optimal and robust three-stage Kalman filter, and finally achieve the reconstruction of system faults [20].…”
Section: Introductionmentioning
confidence: 99%
“…Neural Networks (ANN) [22][23][24], GPA [8], pattern recognition [25], Bayesian Belief network [26], etc. These methods are able to detect gas path sensor faults although they have different advantages and disadvantages.…”
Section: Introductionmentioning
confidence: 99%
“…Exhaust temperature of gas turbines is one of the major variables that should be controlled for safe and reliable operation of turbine and a good indicator of the health conditions and system performance. The validation of measured data and diagnosis possible faults in temperature sensors would be necessary in advance [1].…”
Section: Introductionmentioning
confidence: 99%
“…Undetected faults on temperature sensors may lead to false alarms on system health condition, undesired system trip or endanger entire system safety due to overheating and exceeded thermal stress on turbine blades [1,2].…”
Section: Introductionmentioning
confidence: 99%