PSI - Issue 81

Oleh Yasniy et al. / Procedia Structural Integrity 81 (2026) 116–122

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The results obtained open up prospects for using machine learning models for diagnosing the technical condition of machine and structure elements, predicting the residual resource, as well as creating adaptive digital models in the context of the concept of digital twins. Further research can be aimed at expanding the feature space, in particular, including crack resistance parameters, geometric characteristics of samples, temperature effects and environmental conditions, as well as integrating machine learning with physically based models (hybrid approaches). References Acar, E.; Ozbulut, O.E.; Karaca, H.E, 2015. Experimental Investigation and Modeling of the Loading Rate and Temperature Dependent Superelastic Response of a High Performance Shape-Memory Alloy. Smart Mater. Struct., 24, 075020. Ahmed, S., Alshater, M. M., Ammari, A. E., & Hammami, H., 2022. Artificial intelligence and machine learning in finance: A bibliometric review. Research in International Business and Finance, 61, 101646. Ayaz Atalan, Y.; Atalan, A., 2025. Testing the Wind Energy Data Based on Environmental Factors Predicted by Machine Learning with Analysis of Variance. Appl. Sci., 15, 241. Badora M, Sepe M, Bielecki M, Graziano A, Szolc T., 2021. Predicting length of fatigue cracks by means of machine learning algorithms in the small-data regime. Eksploatacja i Niezawodnosc – Maintenance and Reliability, 23 (3): 575 – 585. Ben Seghier, M. E. A., & Plevris, V., 2023. Application of machine learning approaches for modelling crack growth rates. Сe/p apers, 6(3-4), 860 – 865. Forootan, M.M.; Larki, I.; Zahedi, R.; Ahmadi, A., 2022. Machine Learning and Deep Learning in Energy Systems: A Review. Sustainability, 14, 4832. Gbagba, S., Maccioni, L., & Concli, F., 2024. Advances in Machine Learning Techniques Used in Fatigue Life Prediction of Welded Structures. Applied Sciences, 14(1), 398. Hassan, M.; Shahzadi, S.; Kloczkowski, A., 2025. Harnessing Artificial Intelligence in Pediatric Oncology Diagnosis and Treatment: A Review. Cancers, 17, 1828. Hastie, T., Tibshirani, R., & Friedman, J., 2009. The elements of statistical learning: Data mining, inference, and prediction (2nd ed.). Springer. Huang, Q., Hu, D., Wang, R., Sergeichev, I., Sun, J., & Qian, G., 2025. Fatigue Short Crack Growth Prediction of Additively Manufactured Alloy Based on Ensemble Learning. Fatigue & Fracture of Engineering Materials & Structures, 48(4), 1847-1865. Kaszyński, D., Wiśniewski, R., & Pasternak, M. , 2020. Credit scoring in context of interpretable machine learning. SGH Publishing House. Konda, N., Verma, R., & Jayaganthan, R., 2022. Machine Learning Based Predictions of Fatigue Crack Growth Rate of Additively Manufactured Ti6Al4V. Metals, 12(1), 50. Li, H., & Xie, T., 2023. An improved random forest algorithm for tracing the origin of metastatic renal cancer tissues. Archives of Medical Science. Li, C., Xu, P., 2021. Application on traffic flow prediction of machine learning in intelligent transportation. Neural Comput & Applic, 33, 613 – 624. Kuhn, M., & Johnson, K., 2013. Applied predictive modeling. Springer. Park, H.; Shin, D.; Park, C.; Jang, J.; Shin, D., 2025. Unsupervised Machine Learning Methods for Anomaly Detection in Network Packets. Electronics, 14, 2779. Pawul, M., & Śliwka, M. , 2016. Application of artificial neural networks for prediction of air pollution levels in environmental monitoring. Journal of Ecological Engineering, 17(4), 190-196. 65. Stanko, A., Didych, I., Mykytyshyn, A., Mytnyk, M., & Lupenko, S., 2025. Prediction of CO levels in the air based on UV index using artificial intelligence algorithms. Ceur Workshop ProceedingsOpen source preview, 4057, pp. 37 – 45. Stukhliak, P., Totosko, O., Stukhlyak, D., Vynokurova, O., & Lytvynenko, I., 2024a. Use of neural networks for modelling the mechanical characteristics of epoxy composites treated with electric spark water hammer. CEUR Workshop Proceedings, 3896, 405 – 418. Stukhliak, P., Totosko, O., Vynokurova, O., & Stukhlyak, D., 2024b. Investigation of tribotechnical characteristics of epoxy composites using neural networks. CEUR Workshop Proceedings, 3842, 157 – 170. Stukhliak, P., Yasniy, O., Totosko, O., & Stukhliak, D., 2025. Prediction of Antifriction Characteristics of Epoxyfuran Coatings Using an Artificial Neural Network. Lecture Notes in Networks and Systems, 1480 LNNS, 219 – 230. Tymoshchuk, D., Yasniy, O., Maruschak, P., Iasnii, V., & Didych, I., 2024. Loading Frequency Classification in Shape Memory Alloys: A Machine Learning Approach. Computers, 13(12), 339. Tymoshchuk, D., Didych, I., Maruschak, P., Yasniy, O., Mykytyshyn, A., & Mytnyk, M., 2025. Machine Learning Approaches for Classification of Composite Materials. Modelling, 6(4), 118. Urbina Fredes, S.; Dehghan Firoozabadi, A.; Adasme, P.; Zabala-Blanco, D. ; Palacios Játiva, P.; Azurdia -Meza, C.A., 2025. Hybrid Deep Learning Approach for Automated Sleep Cycle Analysis. Appl. Sci., 15, 6844. Yasniy, O., Didych, I., Tymoshchuk, D., Maruschak, P., & Demchyk, V., 2025a. Prediction of structural elements lifetime of titanium alloy using neural network. Procedia Structural Integrity, 72, 181-187. Yasniy, O., Maruschak, P., Mykytyshyn, A., Didych, I., & Tymoshchuk, D., 2025b. Artificial intelligence as applied to classifying epoxy composites for aircraft. Aviation, 29(1), 22-29. Yasniy, O., Tymoshchuk, D., Didych, I., Zolotyi, R., & Tymoshchuk, V., 2025c. Modeling of shape memory alloys hysteresis behavior considering the loading cycle frequency. Procedia Structural Integrity, 72, 188-194. Y. Lu, F. Yang, T., 2019. Chen. Data for: Effect of single overload on fatigue crack growth in QSTE340TM steel and retardation model modification. Engineering Fracture Mechanics, 212: 81-94.

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