Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild Steel
The drilling process plays a crucial role in the assembly process of modern-day manufactories. One of the major causes of component rejection during drilling operations is the incorrect selection of spindle speed and feed rate. Therefore, this study aimed to investigate the impact of process factors...
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| Format: | Article |
| Language: | English |
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Wiley
2024-01-01
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| Series: | Journal of Engineering |
| Online Access: | http://dx.doi.org/10.1155/2024/9085919 |
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| author | Aqib Hussain Aamer Sharif Muftooh Ur Rehman Siddiqi Ghulam Hussain Melkamu Tadesse Getachew Riaz Muhammad |
| author_facet | Aqib Hussain Aamer Sharif Muftooh Ur Rehman Siddiqi Ghulam Hussain Melkamu Tadesse Getachew Riaz Muhammad |
| author_sort | Aqib Hussain |
| collection | DOAJ |
| description | The drilling process plays a crucial role in the assembly process of modern-day manufactories. One of the major causes of component rejection during drilling operations is the incorrect selection of spindle speed and feed rate. Therefore, this study aimed to investigate the impact of process factors such as spindle speed and feed rate on torque, thrust force, temperature surface roughness, and chip formation during the drilling of AISI 1020 mild steel. A combination of finite element modeling and experimental investigation was employed to achieve the process. Specifically, the commercially available finite element software, Deform 3D, was used for simulation. The modeling results were then compared and validated with the experimental data. A high-speed steel drill bit was utilized during the modeling and experimentation. The spindle speed was varied at 330, 410, and 510 rpm, while the feed rates were set at 0.12, 0.2, and 0.3 mm/rev. The study’s findings suggest that the spindle speed has an inverse relationship with thrust force, torque, and surface roughness, whereas it has a direct relationship with temperature. Conversely, the feed rate directly correlates with thrust force, torque, temperature, and surface roughness. Additionally, an analysis of the chips produced during the experiments revealed the impact of the cutting conditions on chip formation. The study results showed a 2–10% discrepancy between the experimental and simulation data. The ANOVA results indicated that the feed rate contributes the most to thrust force and torque, with a percentage contribution of 61.73% and 59.87%, respectively, followed by spindle speed, with a percentage contribution of 37.09% and 38.89%, respectively. Furthermore, temperature influences spindle speed the most, followed by feed rate, with percentage contributions of 67.75% and 31.11%, respectively. Moreover, the feed rate’s percentage contribution to surface roughness is higher than the spindle speed, with a contribution of 66.20% and 32.18%, respectively. |
| format | Article |
| id | doaj-art-d80ff9cfb78d4e8baff1a4c884b4b2f3 |
| institution | Kabale University |
| issn | 2314-4912 |
| language | English |
| publishDate | 2024-01-01 |
| publisher | Wiley |
| record_format | Article |
| series | Journal of Engineering |
| spelling | doaj-art-d80ff9cfb78d4e8baff1a4c884b4b2f32025-02-03T01:29:29ZengWileyJournal of Engineering2314-49122024-01-01202410.1155/2024/9085919Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild SteelAqib Hussain0Aamer Sharif1Muftooh Ur Rehman Siddiqi2Ghulam Hussain3Melkamu Tadesse Getachew4Riaz Muhammad5Department of Mechanical EngineeringSchool of EngineeringMechanicalMechanical Engineering DepartmentFaculty of Mechanical and Industrial EngineeringMechanical Engineering DepartmentThe drilling process plays a crucial role in the assembly process of modern-day manufactories. One of the major causes of component rejection during drilling operations is the incorrect selection of spindle speed and feed rate. Therefore, this study aimed to investigate the impact of process factors such as spindle speed and feed rate on torque, thrust force, temperature surface roughness, and chip formation during the drilling of AISI 1020 mild steel. A combination of finite element modeling and experimental investigation was employed to achieve the process. Specifically, the commercially available finite element software, Deform 3D, was used for simulation. The modeling results were then compared and validated with the experimental data. A high-speed steel drill bit was utilized during the modeling and experimentation. The spindle speed was varied at 330, 410, and 510 rpm, while the feed rates were set at 0.12, 0.2, and 0.3 mm/rev. The study’s findings suggest that the spindle speed has an inverse relationship with thrust force, torque, and surface roughness, whereas it has a direct relationship with temperature. Conversely, the feed rate directly correlates with thrust force, torque, temperature, and surface roughness. Additionally, an analysis of the chips produced during the experiments revealed the impact of the cutting conditions on chip formation. The study results showed a 2–10% discrepancy between the experimental and simulation data. The ANOVA results indicated that the feed rate contributes the most to thrust force and torque, with a percentage contribution of 61.73% and 59.87%, respectively, followed by spindle speed, with a percentage contribution of 37.09% and 38.89%, respectively. Furthermore, temperature influences spindle speed the most, followed by feed rate, with percentage contributions of 67.75% and 31.11%, respectively. Moreover, the feed rate’s percentage contribution to surface roughness is higher than the spindle speed, with a contribution of 66.20% and 32.18%, respectively.http://dx.doi.org/10.1155/2024/9085919 |
| spellingShingle | Aqib Hussain Aamer Sharif Muftooh Ur Rehman Siddiqi Ghulam Hussain Melkamu Tadesse Getachew Riaz Muhammad Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild Steel Journal of Engineering |
| title | Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild Steel |
| title_full | Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild Steel |
| title_fullStr | Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild Steel |
| title_full_unstemmed | Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild Steel |
| title_short | Deform 3D Simulation and Experimental Study in Machining of AISI 1020 Mild Steel |
| title_sort | deform 3d simulation and experimental study in machining of aisi 1020 mild steel |
| url | http://dx.doi.org/10.1155/2024/9085919 |
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