Abstract
Within an immunity-based architecture for aircraft fault detection, identification and evaluation, a structured, non-self approach has been designed and implemented to classify and quantify the type and severity of different aircraft actuators, sensors, structural components and engine failures. The methodology relies on a hierarchical multi-self strategy with heuristic selection of sub-selves and formulation of a mapping logic algorithm, in which specific detectors of specific selves are mapped against failures based on their capability to selectively capture the dynamic fingerprint of abnormal conditions in all their aspects. Immune negative and positive selection mechanisms have been used within the process. Data from a motion-based six-degrees-of-freedom flight simulator were used to evaluate the performance in terms of percentage identification rates for a set of 2D non-self projections under several upset conditions.
Original language | American English |
---|---|
Journal | The Aeronautical Journal |
Volume | 120 |
DOIs | |
State | Published - May 23 2016 |
Keywords
- artificial immune system
- artificial neural networks
- Failure Detection Identification and Evaluation
- Fault Tolerant Control
- Structural Damage Evaluation
Disciplines
- Aeronautical Vehicles
- Systems Engineering and Multidisciplinary Design Optimization