Surface Roughness Prediction for CNC Milling Process using Artificial Neural Network

In CNC milling process, proper setting of cutting parameter is important to obtain better surface roughness. Unfortunately, conventional try and error method is time consuming as well as high cost. The purpose for this research is to develop mathematical model using multiple regression and artific...

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Butiran Bibliografi
Pengarang-pengarang Utama: M. F. F., Ab Rashid, Mohd Rizal, Abdul Lani
Format: Conference or Workshop Item
Diterbitkan: 2010
Subjek-subjek:
Capaian Atas Talian:http://umpir.ump.edu.my/5278/
http://umpir.ump.edu.my/5278/1/WCE2010_pp2219-2224.pdf
Penanda-penanda: Tambah Penanda
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Ringkasan:In CNC milling process, proper setting of cutting parameter is important to obtain better surface roughness. Unfortunately, conventional try and error method is time consuming as well as high cost. The purpose for this research is to develop mathematical model using multiple regression and artificial neural network model for artificial intelligent method. Spindle speed, feed rate, and depth of cut have been chosen as predictors in order to predict surface roughness. 27 samples were run by using FANUC CNC Milling α-T14E. The experiment is executed by using full-factorial design. Analysis of variances shows that the most significant parameter is feed rate followed by spindle speed and lastly depth of cut. After the predicted surface roughness has been obtained by using both methods, average percentage error is calculated. The mathematical model developed by using multiple regression method shows the accuracy of 86.7% which is reliable to be used in surface roughness prediction. On the other hand, artificial neural network technique shows the accuracy of 93.58% which is feasible and applicable in prediction of surface roughness. The result from this research is useful to be implemented in industry to reduce time and cost in surface roughness prediction.