This paper presents 3D FEM simulation results obtained for the milling operations on a nickel-chromium alloy (Inconel 718) using the Johnson-Cook material constitutive model and variable cutting conditions. Face milling tests were carried out using silicon-aluminum-oxygen-nitrogen (SiAlON) ceramic cutting tools inserts. The machining conditions were selected based on real production data (cutting speed of vc=750 and 800 m/min, feed of f=0.1, 0.125 and 0.15 mm/t, depth of cut of ap=1, 1.5 and 2 mm). The FEM simulations include the maximum and average values of the cutting temperature. They were compared with experimental data obtained by using the high speed infra-red camera
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
This paper is focused on the finite element analysis of machining of Inconel 718 superalloy in a non...
The paper presents the results of numerical calculations showing the temperature distribution of the...
The paper presents the results of numerical calculations showing the temperature distribution of the...
The unique properties of Inconel 718 make it a challenging material to machine especially in ball en...
Due to high strength-to-weight ratio and corrosion resistance, difficult-to-cut materials are used i...
Super-alloys encompass great challenges in machinability. One such alloy of much interest in applica...
This study involves conducting finite element (FE) analysis on face milling of Inconel 718 and inves...
Super-alloys encompass great challenges in machinability. One such alloy of much interest in applica...
Improving the cutting efficiency is the major factor for improving the processing of nickel-based al...
In this innovative work, Inconel 718 alloy turning simulation models under dry and cryogenic machini...
In this innovative work, Inconel 718 alloy turning simulation models under dry and cryogenic machini...
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
The estimation of heat distribution during metal cutting is essential, as it contributes in workpiec...
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
This paper is focused on the finite element analysis of machining of Inconel 718 superalloy in a non...
The paper presents the results of numerical calculations showing the temperature distribution of the...
The paper presents the results of numerical calculations showing the temperature distribution of the...
The unique properties of Inconel 718 make it a challenging material to machine especially in ball en...
Due to high strength-to-weight ratio and corrosion resistance, difficult-to-cut materials are used i...
Super-alloys encompass great challenges in machinability. One such alloy of much interest in applica...
This study involves conducting finite element (FE) analysis on face milling of Inconel 718 and inves...
Super-alloys encompass great challenges in machinability. One such alloy of much interest in applica...
Improving the cutting efficiency is the major factor for improving the processing of nickel-based al...
In this innovative work, Inconel 718 alloy turning simulation models under dry and cryogenic machini...
In this innovative work, Inconel 718 alloy turning simulation models under dry and cryogenic machini...
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
The estimation of heat distribution during metal cutting is essential, as it contributes in workpiec...
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
This paper presents a finite-element modeling (FEM) of tool temperature distribution during high pr...
This paper is focused on the finite element analysis of machining of Inconel 718 superalloy in a non...