Oil debris monitoring (ODM) with adaptive learning
First Claim
1. A method for debris particle detection with adaptive learning in a gas turbine engine, the method comprising:
- delivering oil through a mechanical system including at least one of an active flow valve and a passive flow valve;
sensing a flow of the oil using an oil debris monitor sensor;
receiving, at a signal processor, oil debris monitoring (ODM) sensor data from the oil debris monitor sensor based on the sensed flow of the oil, and received, at the signal processor, fleet data from a database;
detecting, via the signal processor, a feature in the ODM sensor data;
generating, via the signal processor, an anomaly detection signal based on detecting an anomaly by comparing the feature in the ODM sensor data to a limit defined by system information stored in the fleet data;
selecting a maintenance action request based on the anomaly detection signal;
adjusting one or more of the feature, the anomaly, the limit, and the maintenance action request by applying, via an adaptive learning algorithm implementing processor, an adaptive learning algorithm that uses the ODM sensor data, fleet data, and feedback from field maintenance of one or more engines that evolves over time to improve an accuracy of the adaptive learning algorithm to detect the feature in the ODM sensor data; and
applying the adaptive learning algorithm to on-board parameters to detect particles in real-time,wherein applying adaptive learning on ODM sensor data further comprises training a first a set of historical sensor data from fleet data to differentiate the characteristics of parameters with or without a debris particle.
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Accused Products
Abstract
A system and method for debris particle detection with adaptive learning are provided. The method includes receiving oil debris monitoring (ODM) sensor data from an oil debris monitor sensor and fleet data from a database, detecting a feature in the ODM sensor data, generating an anomaly detection signal based on detecting an anomaly by comparing the feature in the ODM sensor data to a limit defined by system information stored in the fleet data, selecting a maintenance action request based on the anomaly detection signal, and adjusting one or more of the feature, the anomaly, the limit, and the maintenance action request by applying an adaptive learning algorithm that uses the ODM sensor data, fleet data, and feedback from field maintenance of one or more engines that evolves over time.
14 Citations
16 Claims
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1. A method for debris particle detection with adaptive learning in a gas turbine engine, the method comprising:
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delivering oil through a mechanical system including at least one of an active flow valve and a passive flow valve; sensing a flow of the oil using an oil debris monitor sensor; receiving, at a signal processor, oil debris monitoring (ODM) sensor data from the oil debris monitor sensor based on the sensed flow of the oil, and received, at the signal processor, fleet data from a database; detecting, via the signal processor, a feature in the ODM sensor data; generating, via the signal processor, an anomaly detection signal based on detecting an anomaly by comparing the feature in the ODM sensor data to a limit defined by system information stored in the fleet data; selecting a maintenance action request based on the anomaly detection signal; adjusting one or more of the feature, the anomaly, the limit, and the maintenance action request by applying, via an adaptive learning algorithm implementing processor, an adaptive learning algorithm that uses the ODM sensor data, fleet data, and feedback from field maintenance of one or more engines that evolves over time to improve an accuracy of the adaptive learning algorithm to detect the feature in the ODM sensor data; and applying the adaptive learning algorithm to on-board parameters to detect particles in real-time, wherein applying adaptive learning on ODM sensor data further comprises training a first a set of historical sensor data from fleet data to differentiate the characteristics of parameters with or without a debris particle. - View Dependent Claims (2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12)
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13. A system for debris particle detection with adaptive learning in a gas turbine engine, the system comprising:
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a memory having computer readable instructions; and a processor configured to execute the computer readable instructions, the computer readable instructions comprising; receiving oil debris monitoring (ODM) sensor data from an oil debris monitor sensor installed in a mechanical system configured to flow oil through including at least one of an active flow valve and a passive flow valve, the oil debris monitor sensor configured to sense the flow of the oil; receiving fleet data from a database; detecting a feature in the ODM sensor data; generating an anomaly detection signal based on detecting an anomaly by comparing the feature in the ODM sensor data to a limit defined by system information stored in the fleet data; selecting a maintenance action based on the anomaly detection signal; adjusting one or more of the feature, the anomaly, the limit, and the maintenance action request by applying an adaptive learning algorithm that uses the ODM sensor data, fleet data, and feedback from field maintenance of one or more engines that evolves over time to improve an accuracy of the adaptive learning algorithm to detect the feature in the ODM sensor data; and applying the adaptive learning algorithm to on-board parameters to detect particles in real-time, wherein applying adaptive learning on ODM sensor data further comprises training a first a set of historical sensor data from fleet data to differentiate the characteristics of parameters with or without a debris particle. - View Dependent Claims (14, 15)
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16. A computer program product for debris particle detection with adaptive learning, the computer program product comprising a computer readable storage medium having program instructions embodied therewith, the program instructions executable by a processor to cause the processor to:
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receive oil debris monitoring (ODM) sensor data from an oil debris monitor sensor and fleet data from a database; detect, via a signal processor, a feature in the ODM sensor data; generate, via the signal processor, an anomaly detection signal based on detecting an anomaly by comparing the feature in the ODM sensor data to a limit defined by system information stored in the fleet data; select a maintenance action request based on the anomaly detection signal; adjust one or more of the feature, the anomaly, the limit, and the maintenance action request by applying, via an adaptive learning algorithm implementing processor, an adaptive learning algorithm that uses the ODM sensor data, fleet data, and feedback from field maintenance of one or more engines that evolves over time to improve an accuracy of the adaptive learning algorithm to detect the feature in the ODM sensor data; and applying the adaptive learning algorithm to on-board parameters to detect particles in real-time, wherein applying adaptive learning on ODM sensor data further comprises training a first a set of historical sensor data from fleet data to differentiate the characteristics of parameters with or without a debris particle.
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Specification