Towards a condition monitoring scheme for combustion instability detection and fuel blends performance classification in gas turbine engines using pattern recognition and advanced machine learning
Towards a condition monitoring scheme for combustion instability detection and fuel blends performance classification in gas turbine engines using pattern recognition and advanced machine learning
The investigation and improvement in fuel performance and combustion is necessary in order to minimize emissions and operation costs in various engineering applications e.g. aerospace. Among these factors, nevertheless, ensuring safe operation is a priority: undesired phenomena, such as thermoacoustic instabilities, can have detrimental effects on jet engines, gas turbines and combustors, in general, due to excessive vibrations. It is for this reason that monitoring and design schemes should be able to identify the potential of occurrence of such events. This is a difficult task due to the complexity of the nature of these events. This paper is a preliminary investigation into the performance and characterization of various fuel blends and the examination of the vibration levels expected for different combustion states of a gas turbine engine. We tackle the issue from the perspective of modifying the input to the system (i.e. the fuel composition) in order to investigate nonlinear behavior of the gas turbine engine through the development of a multi-class classification algorithm. Features from a vibration channel for each of the fuel blends were extracted for both classification modelling and cluster analysis.
Matthaiou, Ioannis
7855a890-8929-4c90-a08c-9672fd7f6fda
Khandelwal, Bhupendra
8d08c1ec-6cb3-4da9-9858-71e7b0ab3611
Antoniadou, Ifigeneia
2966f850-9ca7-4d11-8801-f75f49ad9377
2016
Matthaiou, Ioannis
7855a890-8929-4c90-a08c-9672fd7f6fda
Khandelwal, Bhupendra
8d08c1ec-6cb3-4da9-9858-71e7b0ab3611
Antoniadou, Ifigeneia
2966f850-9ca7-4d11-8801-f75f49ad9377
Matthaiou, Ioannis, Khandelwal, Bhupendra and Antoniadou, Ifigeneia
(2016)
Towards a condition monitoring scheme for combustion instability detection and fuel blends performance classification in gas turbine engines using pattern recognition and advanced machine learning.
8th European Workshop on Structural Health Monitoring, , Bilbao, Spain.
05 - 08 Jul 2016.
Record type:
Conference or Workshop Item
(Paper)
Abstract
The investigation and improvement in fuel performance and combustion is necessary in order to minimize emissions and operation costs in various engineering applications e.g. aerospace. Among these factors, nevertheless, ensuring safe operation is a priority: undesired phenomena, such as thermoacoustic instabilities, can have detrimental effects on jet engines, gas turbines and combustors, in general, due to excessive vibrations. It is for this reason that monitoring and design schemes should be able to identify the potential of occurrence of such events. This is a difficult task due to the complexity of the nature of these events. This paper is a preliminary investigation into the performance and characterization of various fuel blends and the examination of the vibration levels expected for different combustion states of a gas turbine engine. We tackle the issue from the perspective of modifying the input to the system (i.e. the fuel composition) in order to investigate nonlinear behavior of the gas turbine engine through the development of a multi-class classification algorithm. Features from a vibration channel for each of the fuel blends were extracted for both classification modelling and cluster analysis.
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Published date: 2016
Venue - Dates:
8th European Workshop on Structural Health Monitoring, , Bilbao, Spain, 2016-07-05 - 2016-07-08
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Local EPrints ID: 481792
URI: http://eprints.soton.ac.uk/id/eprint/481792
PURE UUID: bc830443-1280-42b8-93f5-1ed99c940125
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Date deposited: 07 Sep 2023 16:46
Last modified: 18 Mar 2024 04:08
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Contributors
Author:
Ioannis Matthaiou
Author:
Bhupendra Khandelwal
Author:
Ifigeneia Antoniadou
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