Finite element modeling method of centrifugal rotary processing
Introduction. In modern production, when performing finishing operations, centrifugal rotary processing in the medium of abrasive plays an important role. High productivity, low costs and extensive technological capabilities are the main advantages of these cleaning and finishing operations. This pa...
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Don State Technical University
2019-10-01
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| Series: | Advanced Engineering Research |
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| Online Access: | https://www.vestnik-donstu.ru/jour/article/view/1528 |
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| author | A. N. Soloviev M. A. Tamarkin Nguyen Van Tho |
| author_facet | A. N. Soloviev M. A. Tamarkin Nguyen Van Tho |
| author_sort | A. N. Soloviev |
| collection | DOAJ |
| description | Introduction. In modern production, when performing finishing operations, centrifugal rotary processing in the medium of abrasive plays an important role. High productivity, low costs and extensive technological capabilities are the main advantages of these cleaning and finishing operations. This paper considers the process of abrasive particle – workpiece surface interaction within the framework of the static contact problem of the elasticity theory. Thus, plastic deformation in the contact area comes into account.Materials and Methods. The abrasive particle (corundum) is simulated with a linearly elastic body, whose Young's modulus is significantly larger than that of the work material. The process material (steel) is simulated with an elastoplastic bilinear body using the von Mises yield criterion.Research Results. Finite element modeling of the structures under consideration was performed in the ANSYS CAE package. The process of abrasive particle – workpiece surface interaction was simulated; its stress-strain state was analyzed. The results of numerical experiments are presented. They have determined how equivalent plastic strains are distributed at depths of the cone penetration of 0.01 mm and 0.05 mm. The data obtained, as well as the areas of plastic strain values of more than 1%, are visualized in the ANSYS CAE package.Discussion and Conclusions. It is established that the equivalent plastic deformation is proportional to the depth of penetration (DP). It reaches a minimum value of 0.158 at DP = 0.01 mm, and a maximum of 0.825 at DP = 0.05 mm. The dependences of the plastic region sizes on DP are determined for cases when the plastic deformation exceeds 1%. At the maximum penetration (0.05 mm), the deformation radius is 1 mm, and the depth is 0.8 mm. On the basis of the data obtained as a result of the conducted research, the parameters of the technological process (rotational speed, size of the abrasive surface, mass of abrasive particles) that affect the workpiece – abrasive particle interaction can be selected. A judicious choice of these parameters will increase the processing efficiency |
| format | Article |
| id | doaj-art-d8ed68fe27bc4d5aa46731a0417fef3c |
| institution | Kabale University |
| issn | 2687-1653 |
| language | Russian |
| publishDate | 2019-10-01 |
| publisher | Don State Technical University |
| record_format | Article |
| series | Advanced Engineering Research |
| spelling | doaj-art-d8ed68fe27bc4d5aa46731a0417fef3c2025-08-20T03:57:12ZrusDon State Technical UniversityAdvanced Engineering Research2687-16532019-10-0119321422010.23947/1992-5980-2019-19-2-214-2201422Finite element modeling method of centrifugal rotary processingA. N. Soloviev0M. A. Tamarkin1Nguyen Van Tho2Don State Technical UniversityDon State Technical UniversityDon State Technical University; Hai Phong University, Hai Phong CityIntroduction. In modern production, when performing finishing operations, centrifugal rotary processing in the medium of abrasive plays an important role. High productivity, low costs and extensive technological capabilities are the main advantages of these cleaning and finishing operations. This paper considers the process of abrasive particle – workpiece surface interaction within the framework of the static contact problem of the elasticity theory. Thus, plastic deformation in the contact area comes into account.Materials and Methods. The abrasive particle (corundum) is simulated with a linearly elastic body, whose Young's modulus is significantly larger than that of the work material. The process material (steel) is simulated with an elastoplastic bilinear body using the von Mises yield criterion.Research Results. Finite element modeling of the structures under consideration was performed in the ANSYS CAE package. The process of abrasive particle – workpiece surface interaction was simulated; its stress-strain state was analyzed. The results of numerical experiments are presented. They have determined how equivalent plastic strains are distributed at depths of the cone penetration of 0.01 mm and 0.05 mm. The data obtained, as well as the areas of plastic strain values of more than 1%, are visualized in the ANSYS CAE package.Discussion and Conclusions. It is established that the equivalent plastic deformation is proportional to the depth of penetration (DP). It reaches a minimum value of 0.158 at DP = 0.01 mm, and a maximum of 0.825 at DP = 0.05 mm. The dependences of the plastic region sizes on DP are determined for cases when the plastic deformation exceeds 1%. At the maximum penetration (0.05 mm), the deformation radius is 1 mm, and the depth is 0.8 mm. On the basis of the data obtained as a result of the conducted research, the parameters of the technological process (rotational speed, size of the abrasive surface, mass of abrasive particles) that affect the workpiece – abrasive particle interaction can be selected. A judicious choice of these parameters will increase the processing efficiencyhttps://www.vestnik-donstu.ru/jour/article/view/1528centrifugal rotary processingabrasive treatmentcontact problemplasticityfinite element method |
| spellingShingle | A. N. Soloviev M. A. Tamarkin Nguyen Van Tho Finite element modeling method of centrifugal rotary processing Advanced Engineering Research centrifugal rotary processing abrasive treatment contact problem plasticity finite element method |
| title | Finite element modeling method of centrifugal rotary processing |
| title_full | Finite element modeling method of centrifugal rotary processing |
| title_fullStr | Finite element modeling method of centrifugal rotary processing |
| title_full_unstemmed | Finite element modeling method of centrifugal rotary processing |
| title_short | Finite element modeling method of centrifugal rotary processing |
| title_sort | finite element modeling method of centrifugal rotary processing |
| topic | centrifugal rotary processing abrasive treatment contact problem plasticity finite element method |
| url | https://www.vestnik-donstu.ru/jour/article/view/1528 |
| work_keys_str_mv | AT ansoloviev finiteelementmodelingmethodofcentrifugalrotaryprocessing AT matamarkin finiteelementmodelingmethodofcentrifugalrotaryprocessing AT nguyenvantho finiteelementmodelingmethodofcentrifugalrotaryprocessing |