Abstract
This paper presents the development and application of fuzzy logic in the milling of thin-walled parts for the purpose of analyzing surface roughness. Surface roughness is an important performance indicator of finished components. Depending on conditions such as feed ratio and wall thickness, different machining strategies can be applied. The objective was to analyze and determine the influence of the machining conditions on surface roughness. The model for analyzing and determining surface roughness of the aluminum alloy AL 7075 was trained (design rules) and compared by using the experimental data. The average deviation of the compared data for surface roughness was 12.3%. The effect of the feed ratio, wall thickness and machining strategy as well as their interactions in machining are thoroughly analyzed and presented in this study.











Similar content being viewed by others
Abbreviations
- MRR:
-
Material removal rate
- Ra:
-
Surface roughness—arithmetic mean roughness (µm)
- Rz:
-
Surface roughness—max. height roughness (µm)
- CNC:
-
Computer numerical control
- MISO:
-
Multi-input–single-output
- MIMO:
-
Multi-input–multiple-output
- Al:
-
Aluminum
- ANN:
-
Artificial neural network
- MMC:
-
Metal matrix composites
- MLP:
-
Multi-layer perceptron
- RBF:
-
Radial basis function
- PSO:
-
Particle swarm optimization
- ANFIS:
-
Adaptive network-based fuzzy interface system
- FIS:
-
Fuzzy interface system
- MF:
-
Membership functions
- 3D:
-
Three dimensional
References
Hirsch, J. (2014). Recent development in aluminum for automotive applications. Transactions of Nonferrous Metals Society of China,24, 1995–2002.
Park, S. H., Nam, E., Gang, M. G., & Min, B. K. (2019). Post-machining deformation analysis for virtual machining of thin aluminium alloy parts. International Journal of Precision Engineering and Manufacturing,20, 687–691.
Das, H., Mondal, M., Hong, S. T., Chun, D. M., & Han, H. N. (2018). Joining and fabrication of metal matrix composites by friction stir welding/processing. International Journal of Precision Engineering and Manufacturing—Green Technology,5(1), 151–172.
Shoulder milling of thin deflecting walls. (2017). www.sandvik.coromant.com/en-gb/knowledge/milling/application_overview/shoulder_milling/shoulder_milling_thin_walls. Accessed 21 December 2017.
Isaev, A., Grechishnikov, V., Pivkin, P., Kozochkin, M., Ilyuhin, Y., & Vorotnikov, A. (2016). Machining of thin-walled parts produced by additive manufacturing technologies. In 48th CIRP conference on manufacturing systems-CIRP CMS 2015, (Vol. 41, pp. 1023–1026).
Dutta, A., Das, A., & Joshi, S. N. (2017). Optimum process parameters for efficient and quality thin wall machining using firefly algorithm. International Journal of Additive and Subtractive Materials Manufacturing,1(1), 3–22.
Thin Wall Machining. (2017). https://www.makino.com/about/news/thin-wall-machining/171/. Accessed 21 December 2017.
Ab-Kadir, A., Osman, M., & Shamsuddin, K. (2013). A comparison of milling cutting path strategies for thin-walled aluminum alloys fabrication. The Internal Journal of Engineering and Science,2(3), 1–8.
Scippa, A., Grossi, N., & Campatelli, G. (2014). FEM based cutting velocity selection for thin walled part machining. Procedia CIRP,14, 287–292.
Huang, X., Sun, J., & Li, J. (2015). Effect of initial residual stress and machining-induced residual stress on the deformation of aluminum alloy plate. Strojniski vestnik-Journal of Mechanical Engineering,61(2), 131–137.
Zhou, X., Zhang, D., Luo, M., & Wu, B. (2014). Toolpath dependent chatter suppression in multi-axis milling of hollow fan blades with ball-end cutter. International Journal of Advanced Manufacturing Technology,72(5–8), 643–651.
Popma, M. G. R. (2010). Computer aided process planning for high speed milling of thin-walled parts: strategy-based support. University of Twente. https://ris.utwente.nl/ws/portalfiles/portal/6081866/thesis_M_Popma.pdf. Accessed 15 August 2018.
Izamshah, R., Mo, J., & Ding, S. (2012). Hybrid deflection prediction on machining thin-wall monolithic aerospace components. Proceedings of the Institution of Mechanical Engineers, Part B: Journal of Engineering Manufacture,226(4), 592–605.
Quintana, G., Garcia-Romeu, M. L., & Ciurana, J. (2011). Surface roughness monitoring application based on artificial neural networks for ball-end milling operations. Journal of Intelligent Manufacturing,22(4), 607–617.
Baranek, I., Buransky, I., & Peterka, J. (2013). Influence of material removal way on thin-walled part quality by milling. MM (Modern Machinery) Science Journal,2013, 414–417.
Das, A., Salunkhe, B., Bolar, G., & Joshi, S. N. (2016). A comparative study on performance of approaches for machining of thin-wall components. In 6th international & 27th all India manufacturing technology, design and research conference (AIMTDR-2016), December 16–18, 2016 at College of Engineering., Pune, Maharashtra, India.
Jiao, K. R., Huang, S. T., & Xu, L. F. (2014). Experimental study on surface quality at different milling speed of high volume fraction SiCp/Al thin walled test-piece. Materials Science Forum, Trans Tech Publication,800–801, 15–19.
Chandrasekaran, M., & Devarasiddappa, D. (2014). Artificial neural network modeling for surface roughness prediction in cylindrical grinding of Al–SiCp metal matrix composites and ANOVA analysis. Advances in Production Engineering and Management,9(2), 59–70.
Fang, N., Pai, P. S., & Edwards, N. (2016). Neural network modeling and prediction of surface roughness in machining aluminum alloys. Journal of Computer and Communications,4(5), 1–9.
Pandian, P., Prabhu, P., Raja, V., & Sakthimurugan, K. (2013). Optimization and cutting parameters of thin ribs in high speed machining. International Journal of Engineering Inventions,2(4), 62–68.
Yıldız, A. R., Kurtuluş, E., Demirci, E., Yıldız, B. S., & Karagöz, S. (2016). Optimization of thin-wall structures using hybrid gravitational search and Nelder–Mead algorithm. Materials Testing,58(1), 75–78.
Kovac, P., Rodic, D., Pucovski, V., Mankova, I., Savkovic, B., & Gostimirovic, M. (2012). A review of artificial intelligence approaches applied in intelligent processes. Journal of Production Engineering,15(1), 1–4.
Hossain, M. S. J., & Ahmad, N. (2012). Artificial intelligence-based surface roughness prediction modeling for three-dimensional end milling. International Journal of Advanced Science and Technology,45(8), 1–18.
Sandvik Coromant. (2017). https://www.sandvik.coromant.com/en-us/products/Pages/productdetails.aspx?c=R216.32-10025-AK32A%20H10F. Accessed 21 December 2017.
Borojevic, S., Lukic, D., Milosevic, M., Vukman, J., & Kramar, D. (2018). Optimization of process parameters for machining of Al 7075 thin-walled structures. Advances in Production Engineering and Management,13(2), 125–135.
Kovac, P., Rodic, D., Pucovsky, V., Savkovic, B., & Gostimirovic, M. (2013). Application of fuzzy logic and regression analysis for modeling surface roughness in face milling. Journal of Intelligent Manufacturing,24(4), 755–762.
Mamdani, E. H., & Assilian, S. (1975). An experiment in linguistic synthesis with a fuzzy logic controller. International Journal of Man–Machine Studies,7(1), 1–13.
Sugeno, M., & Kang, G. (1988). Structure identification of fuzzy model. Fuzzy Sets and Systems,28(1), 15–33.
Tsukamoto, Y. (1979). An approach to fuzzy reasoning method. In M. M. Gupta, R. K. Ragade, & R. R. Yager (Eds.), Advances in fuzzy set theory and applications (pp. 137–149). Amsterdam: Elsevier.
Nukman, Y., Hassan, M., & Harizam, M. (2013). Optimization of prediction error in CO2 laser cutting process by Taguchi artificial neural network hybrid with genetic algorithm. Applied Mathematics & Information Sciences,7(1), 363–370.
Ren, Q., Balazinski, M., Jemielniak, K., Baron, L., & Achiche, S. (2013). Experimental and fuzzy modelling analysis on dynamic cutting force in micro milling. Soft Computing,17(9), 1687–1697.
Acknowledgement
This paper is part of a research on projects—TR 35025 and TR 35015 supported by the Ministry of Education, Science and Technological Development, Republic of Serbia.
Author information
Authors and Affiliations
Corresponding author
Additional information
Publisher's Note
Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
Rights and permissions
About this article
Cite this article
Vukman, J., Lukic, D., Borojevic, S. et al. Application of Fuzzy Logic in the Analysis of Surface Roughness of Thin-Walled Aluminum Parts. Int. J. Precis. Eng. Manuf. 21, 91–102 (2020). https://doi.org/10.1007/s12541-019-00229-3
Received:
Revised:
Accepted:
Published:
Issue Date:
DOI: https://doi.org/10.1007/s12541-019-00229-3