Project Details
Description
The project aims to develop a machine learning (ML) based approach for efficient corrosion engineering and predictive maintenance, targeting continuous monitoring as well as accelerated testing protocols for material development in the aerospace industry. To this end, ultrasonic sensing, corrosion analytics, and simulation will be synergistically combined to classify corrosive processes. ML based algorithms will thus be trained to predict corrosion, as well as the type of corrosion, with high reliability. In addition, corrosion testing and monitoring can greatly benefit from early detection to accelerate material development and reduce material consumption through timely detection and minimal repair. Predictive monitoring of corrosion, as well as accelerated development of corrosion-resistant materials based on ML, offer a promising way to advance the aerospace industry toward sustainable material use. Based on this project, the continuous stream of data will be used to classify corrosion that can be intuitively understood through a human-machine interface, including qualified corrosion predictions through ML models generated from test campaigns. This will enable a significant reduction in material development time and open new market opportunities for ultrasound-based sensing and machine learning applications in aerospace.
| Status | Active |
|---|---|
| Effective start/end date | 01.12.2023 → 30.11.2026 |
Collaborative partners
- Johannes Kepler University Linz (lead)
- Senzoro GmbH (Project partner)
- CEST Kompetenzzentrum für elektrochemische Oberflächentechnologie GmbH (Project partner)
- RO-RA Aviaton Systems GmbH (Project partner)
- University for Continuing Education Krems (Project partner)
Fields of science
- 203 Mechanical Engineering
- 205015 Composites
- 203022 Technical mechanics
- 203011 Lightweight design
- 203002 Endurance strength
- 203012 Aerospace engineering
- 203034 Continuum mechanics
- 203015 Mechatronics
- 203004 Automotive technology
- 203003 Fracture mechanics
- 211905 Bionics
- 205016 Materials testing
- 201117 Lightweight design
- 203007 Strength of materials
JKU Focus areas
- Sustainable Development: Responsible Technologies and Management
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Mathematische Modellierung der Lamb-Wellenausbreitung in dünnwandigen Strukturen zur Parameteridentifikation
Oberfichtner, M., Nov 2025, Linz, 2025. 76 p.Research output: Thesis › Master's / Diploma thesis
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Impact of Model Knowledge on Acoustic Emission Source Localization Accuracy
Erlinger, T., Kralovec-Rödhammer, C., Humer, C. & Schagerl, M., Oct 2024, Proceedings of the 36th Conference of the European Working Group on Acoustic Emission, 18-20 September 2024, Potsdam, Germany (EWGAE 2024). NDT.net (ed.). Vol. 29. 10 p. (e-Journal of Nondestructive Testing (eJNDT) ISSN 1435-4934).Research output: Chapter in Book/Report/Conference proceeding › Conference proceedings › peer-review
Activities
- 2 Contributed talk
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Impact of Model Knowledge on Acoustic Emission Source Localization Accuracy
Erlinger, T. (Speaker)
19 Sept 2024Activity: Talk or presentation › Contributed talk › science-to-science
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Damage evaluation results of a hybrid pinned single-lap-shear joint by acoustic methods using a multi-method SHM system
Kralovec-Rödhammer, C. (Speaker)
18 Sept 2024Activity: Talk or presentation › Contributed talk › science-to-science