AbstractThis paper develops a predictive and optimization model by coupling the two artificial intelligence approaches – artificial neural network and genetic algorithm – as an alternative to conventional approaches in predicting the optimal value of machining parameters leading to minimum surface roughness. A real machining experiment has been referred in this study to check the capability of the proposed model for prediction and optimization of surface roughness. The results predicted by the proposed model indicate good agreement between the predicted values and experimental values. The analysis of this study proves that the proposed approach is capable of determining the optimum machining parameters
For many industrial machining operations, the quality of surface finish is the prominent requirement...
This work aims to model and investigate the effect of cutting speed, feed rate, depth of cut and the...
poster abstractAbstract Turning is a material removal process, a subtractive form of machining whi...
AbstractThis paper develops a predictive and optimization model by coupling the two artificial intel...
The aim of present research focuses on the prediction of machining parameters that improve the quali...
In literature predicting surface roughness has gained greater interest. Several approaches has been ...
This paper targets the surface roughness concept in end milling in which the tool-work material comb...
This paper targets the surface roughness concept in end milling in which the tool-work material comb...
Surface roughness is one of the most important properties in any machining process and in micro mil...
Abstract This work is aimed at developing relations between the pertinent variables t...
Received 06 October 2021; revised 23 August 2022; accepted 24 August 2022 Mould preparation is an im...
29-37<span style="font-size:9.0pt;mso-bidi-font-size: 10.0pt;color:#131313" lang="EN-US">The <span ...
In this study, we proposed a new approach in estimating a minimum value of machining performance. In...
AbstractIn the present study, response surface methodology has been applied to determine the optimum...
The former, which is defined as modeling of machining processes, is essential to provide the basic m...
For many industrial machining operations, the quality of surface finish is the prominent requirement...
This work aims to model and investigate the effect of cutting speed, feed rate, depth of cut and the...
poster abstractAbstract Turning is a material removal process, a subtractive form of machining whi...
AbstractThis paper develops a predictive and optimization model by coupling the two artificial intel...
The aim of present research focuses on the prediction of machining parameters that improve the quali...
In literature predicting surface roughness has gained greater interest. Several approaches has been ...
This paper targets the surface roughness concept in end milling in which the tool-work material comb...
This paper targets the surface roughness concept in end milling in which the tool-work material comb...
Surface roughness is one of the most important properties in any machining process and in micro mil...
Abstract This work is aimed at developing relations between the pertinent variables t...
Received 06 October 2021; revised 23 August 2022; accepted 24 August 2022 Mould preparation is an im...
29-37<span style="font-size:9.0pt;mso-bidi-font-size: 10.0pt;color:#131313" lang="EN-US">The <span ...
In this study, we proposed a new approach in estimating a minimum value of machining performance. In...
AbstractIn the present study, response surface methodology has been applied to determine the optimum...
The former, which is defined as modeling of machining processes, is essential to provide the basic m...
For many industrial machining operations, the quality of surface finish is the prominent requirement...
This work aims to model and investigate the effect of cutting speed, feed rate, depth of cut and the...
poster abstractAbstract Turning is a material removal process, a subtractive form of machining whi...