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The competitiveness in maritime operations demands maintenance strategies that ensure high reliability and availability at minimal cost. While predictive diagnostics have shown promise in detecting deviations from optimal operating conditions, current methodologies often fail to effectively isolate and identify the contributing process variables. This study introduces an enhanced predictive diagnostic approach that integrates MYT (Mason, Young, Tracy) decomposition with traditional statistical monitoring techniques, such as Hotelling's T² control charts. By applying this methodology to the auxiliary systems of a 284-meter LNG tanker, we identified that the key variables driving process anomalies were Superheated Steam in Boiler 1 (Tn/h) and Superheated Steam in Boiler 2 (Tn/h). These findings underscore the ability of the proposed method to detect deviations before critical failures occur, providing ship operators with actionable insights to enable precise maintenance scheduling, reduce operational costs, and prevent unscheduled downtime. The demonstrated integration of MYT decomposition into predictive maintenance protocols highlights its potential to optimize monitoring accuracy and decision-making in complex naval systems.
Rocznik
Tom
Strony
543--548
Opis fizyczny
Bibliogr. 20 poz., rys., tab.
Twórcy
autor
- University of the Basque Country UPV/EHU, Portugalete, Spain
autor
- University of Split, Split, Croatia
autor
- University of the Basque Country UPV/EHU, Portugalete, Spain
autor
- University of Cantabria, Santander, Spain
autor
- University of Cantabria, Santander, Spain
Bibliografia
- [1] I. Ali, "The world's maritime industry in the 21st century: Challenges, expectations, and directions," South East Asian Marine Sciences Journal, vol. 2, (2), pp. 64–75, 2025. .
- [2] A. Sardar, "No title," Improving Safety and Efficiency in the Maritime Industry: A Multi-Disciplinary Approach, 2024. .
- [3] T. Zonta, C. A. Da Costa, R. da Rosa Righi, M. J. de Lima, E. S. Da Trindade and G. P. Li, "Predictive maintenance in the Industry 4.0: A systematic literature review," Comput. Ind. Eng., vol. 150, pp. 106889, 2020. .
- [4] M. Sadat Lavasani, N. Raeisi Ardali, R. Sotudeh-Gharebagh, R. Zarghami, J. Abonyi and N. Mostoufi, "Big data analytics opportunities for applications in process engineering," Reviews in Chemical Engineering, vol. 39, (3), pp. 479–511, 2023. .
- [5] I. González and I. Sánchez, "Variable selection for multivariate statistical process control," Journal of Quality Technology, vol. 42, (3), pp. 242–259, 2010. .
- [6] S. Kapp, J. Choi and T. Hong, "Predicting industrial building energy consumption with statistical and machine-learning models informed by physical system parameters," Renewable and Sustainable Energy Reviews, vol. 172, pp. 113045, 2023. .
- [7] S. Lipovetsky, "Multivariate statistical methods: A brief review on their modifications and applications," Model Assisted Statistics and Applications, vol. 17, (2), pp. 145–147, 2022. .
- [8] S. Lipovetsky and V. Manewitsch, "Analytical Closed-Form Solution for General Factor with Many Variables," Journal of Modern Applied Statistical Methods, vol. 18, (1), pp. 2, 2020. .
- [9] A. Abbasi Hoseini and S. Steen, "Multivariate time series data mining in ship monitoring database," Journal of Offshore Mechanics and Arctic Engineering, vol. 139, (6), pp. 061304, 2017. .
- [10] C. Capezza, S. Coleman, A. Lepore, B. Palumbo and L. Vitiello, "Ship fuel consumption monitoring and fault detection via partial least squares and control charts of navigation data," Transportation Research Part D: Transport and Environment, vol. 67, pp. 375–387, 2019. .
- [11] R. L. Mason and J. C. Young, "Why multivariate statistical process control?" Qual. Prog., vol. 31, (12), pp. 88, 1998. .
- [12] M. Henneberg, B. Jørgensen and R. L. Eriksen, "Oil condition monitoring of gears onboard ships using a regression approach for multivariate T2 control charts," J. Process Control, vol. 46, pp. 1–10, 2016. .
- [13] K. Joshi and B. Patil, "Multivariate statistical process monitoring and control of machining process using principal component-based Hotelling T2 charts: A machine vision approach," International Journal of Productivity and Quality Management, vol. 35, (1), pp. 40–56, 2022. .
- [14] S. Lee, "Identification of the out-of-control variable based on Hotelling's T 2 statistic," The Korean Journal of Applied Statistics, vol. 31, (6), pp. 811–823, 2018. .
- [15] R. L. Mason and J. C. Young, Multivariate Statistical Process Control with Industrial Applications. SIAM, 2002.
- [16] R. D. Pangesti, A. A. Suhaimi, E. Sunandi and I. R. A. Islami, "Control Chart of T² Hotelling on Quality Control Activities of Crude Palm Oil (CPO) at PT Cipta Graha Garwita, Seluma Regency, Bengkulu Province," Journal of Statistics and Data Science, vol. 3, (1), pp. 21–26, 2024. .
- [17] R. L. Mason, Y. Chou, J. H. Sullivan, Z. G. Stoumbos and J. C. Young, "Systematic patterns in T 2 charts," Journal of Quality Technology, vol. 35, (1), pp. 47–58, 2003. .
- [18] R. L. Mason, N. D. Tracy and J. C. Young, "A practical approach for interpreting multivariate T 2 control chart signals," Journal of Quality Technology, vol. 29, (4), pp. 396–406, 1997. .
- [19] A. C. Rencher, "The Contribution of Individual Variables to Hotelling's T 2, Wilks' Λ, and R 2," Biometrics, pp. 479–489, 1993. .
- [20] R. L. Mason, N. D. Tracy and J. C. Young, "Decomposition of T 2 for multivariate control chart interpretation," Journal of Quality Technology, vol. 27, (2), pp. 99–108, 1995.
Uwagi
Pełne imiona autorów podano na stronie internetowej czasopisma w "Authors in other databases".
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-c49585f6-14bb-4e0d-ba57-ae08060052ca
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