[1] Chen C., Li G., Liu Z., Guo J., Jin T., Jiao J., and Jiang H., 2025. A comprehensive evaluation method for generalized reliability of CNC machine tools based on improved entropy-weighted extensible matter-element method. International Journal of Precision Engineering and Manufacturing,26(2), pp. 429-437. [2] Friederich J., and Lazarova-Molnar S., 2024. Reliability assessment of manufacturing systems: A comprehensive overview, challenges and opportunities.Journal of Manufacturing Systems, 72, pp. 38-58. [3] Wu S., Zhang L., Liu T., Liu T., and Liu Y., 2025. A machine learning-based framework for reliability prediction of metallic seals with manufacturing-induced dimensional uncertainties.Reliability Engineering & System Safety, 112062. [4] Ajayi O.D., Ekwaro-Osire S., Belli O., Gand ur N.L., and Lopez-Salazar C.A., 2025. Uncertainty quantification in fault and degradation analysis of rolling element bearings.ASCE-ASME Journal of Risk and Uncertainty in Engineering Systems, Part B: Mechanical Engineering, 11(4), 041205. [5] Chen C., Du S., Meng Q., Liu Z., Guo S., Liu H., Hua C., and Zhang L., 2026. Reliability assessment of CNC machine tools based on machining accuracy degradation. InJournal of Physics: Conference Series,3176(1), 012040. [6] Yang Z., Chen C.H., Chen F., Hao Q.B., and Xu B.B., 2013. Reliability analysis of machining center based on the field data. Eksploatacja I Niezawodność,15(2), pp. 147-155. [7] Abiodun T.S., Rampersad G., and Brinkworth R., 2023. Driving smartness for organizational performance through industry 4.0: a systems perspective. Journal of Manufacturing Technology Management,34(9), pp. 40-63. [8] Li Z., Yang Z., Liu Z., Chen C., Guo J., and Tian H., 2025. Review on reliability technology for high-end CNC machine tools: overview and prospect.Chinese Journal of Mechanical Engineering, 100177. [9] Abidi M.H., Mohammed M.K., and Alkhalefah H., 2022. Predictive maintenance planning for industry 4.0 using machine learning for sustainable manufacturing.Sustainability, 14(6), 3387. [10] Han X., Wang Z., Xie M., He Y., Li Y., and Wang W., 2021. Remaining useful life prediction and predictive maintenance strategies for multi-state manufacturing systems considering functional dependence.Reliability Engineering & System Safety, 210, 107560. [11] Ambika P.S., Akhil V.M., and Rajendrakumar P.K., 2025. Data-driven remaining useful life prediction of rolling bearings via scattering transforms and long short-term memory networks.Results in Engineering, 106152. [12] Ranasinghe G.D., Lindgren T., Girolami M., and Parlikad A.K., 2019. A methodology for prognostics under the conditions of limited failure data availability.IEEE Access, 7, pp. 183996-184007. [13] da Cunha B.S., das Chagas Moura M., Azevedo R., Santana J.M.M., Maior C.B.S., Lins I.D., Mendes R., Lima E.N., Lucas T.C., Siqueira P.G., and de Negreiros A.C.S.V., 2024. A bayesian approach for reliability estimation for non-homogeneous and interval-censored failure data.Process Safety and Environmental Protection, 182, pp. 775-788. [14] Feng C., Yang Z., Chen C., Guo J., Leng J., and Zhou J., 2021. Reliability evaluation of CNC machine tools considering competing failures of fault failure data and machining accuracy degradation data. [15] Tian H., Sun Y., Chen C., He J., Zhang T., and Zhao H., 2024. Reliability modeling of CNC machine tool electric spindle based on environmental factors. In2024 8th International Conference on System Reliability and Safety (ICSRS), pp. 109-113. [16] Duan C., Deng C., and Li N., 2019. Reliability assessment for CNC equipment based on degradation data. the International Journal of Advanced Manufacturing Technology,100(1), pp. 421-434. [17] Fan J., Xue L., Liu Y., and Li W., 2021. Reliability analysis of spindle system of CNC grinder based on fault data. the International Journal of Advanced Manufacturing Technology,117(9), pp. 3169-3183. [18] Shi M., Cao Z., Liu Y., Liu F., Lu S., and Li G., 2021. Feature extraction method of rolling bearing based on adaptive divergence matrix linear discriminant analysis.Measurement Science and Technology, 32(7), 075003. [19] Yang Y., Fu P., and He Y., 2018. Bearing fault automatic classification based on deep learning.IEEE Access, 6, pp. 71540-71554. [20] Liu H., Zhang Y., Li C., and Gu J., 2021. Reliability optimization design of deformation of CNC lathe spindle considering thermal effect. Proceedings of the Institution of Mechanical Engineers, Part O: Journal of Risk and Reliability,235(5), pp. 769-782. [21] Jiang Z., Huang X., Chang M., Li C., and Ge Y., 2021. Thermal error prediction and reliability sensitivity analysis of motorized spindle based on kriging model.Engineering Failure Analysis, 127, 105558. [22] Yang Z., Li X., Chen C., Zhao H., Yang D., Guo J., and Luo W., 2019. Reliability assessment of the spindle systems with a competing risk model. Proceedings of the Institution of Mechanical Engineers, Part O: Journal of Risk and Reliability,233(2), pp. 226-234. [23] Dayong J., Taiyong W., Yongxiang J., Lu L., and Miao H., 2010. Reliability assessment of machine tool spindle bearing based on vibration feature. In2010 International Conference on Digital Manufacturing & Automation, 2, pp. 154-157. [24] Liu Y., Peng H., and Yang Y., 2018. Reliability modeling and evaluation method of CNC grinding machine tool.Applied Sciences, 9(1), 14. [25] Yan W.X., Pin W., and He L., 2021. Reliability prediction of CNC machine tool spindle based on optimized cascade feedforward neural network.IEEE Access, 9, pp. 60682-60688. [26] Li Y., Zhang X., Ran Y., and Zhang G., 2021. Reliability modeling and analysis for CNC machine tool based on meta‐action. Quality and Reliability Engineering International,37(4), pp. 1451-1467. [27] Mu Z., Zhang G., Ran Y., Zhang S., and Li J., 2019. A reliability statistical evaluation method of CNC machine tools considering the mission and load profile.IEEE Access, 7, pp. 115594-115602. |