Investigation of residual stresses arising during incremental shaping
- Authors: Razzhivin V.A1,2
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Affiliations:
- Samara National Research University
- Samara Federal Research Center of the Russian Academy of Sciences
- Issue: Vol 25, No 1 (2023)
- Pages: 5-9
- Section: Articles
- URL: https://journals.eco-vector.com/1990-5378/article/view/624517
- DOI: https://doi.org/10.37313/1990-5378-2023-25-1-5-9
- ID: 624517
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Abstract
In this article, studies have been carried out to determine the magnitude of residual stresses arising during incremental shaping of a truncated cone, depending on the angle of inclination of its formative. To assess the residual stresses the method of cutting rings was used, according to the results of which it was found that the rings, cut out along the height, manufactured conical parts, when cutting are closed. This indicates the formation of compressive circumferential stresses during incremental shaping. There is also an insignificant axial displacement of the ring ends after cutting rings, which indicates the presence of axial residual stresses, the value of which is negligibly small compared to the value of circumferential stresses. As the degree of deformation increases during incremental shaping (increasing the taper angle), the magnitude of residual stresses decreases.
About the authors
Vasily A Razzhivin
Samara National Research University; Samara Federal Research Center of the Russian Academy of Sciences
Author for correspondence.
Email: vasia.razzhivin@yandex.ru
Graduate Student of the Samara National Research University, Engineer of the Department of Metal Physics and Aviation Materials, Samara Science Center of the Russian Academy of Sciences
Russian Federation, SamaraReferences
- Gupta P., Jeswiet J. Manufacture of an aerospace component by single point incremental forming. Procedia Manufacturing. Volume 29. 2019, pp. 112-119.
- Jeswiet J., Micari F., Hirt G., Bramley A., Dufl ou J., Allwood J. Asymmetric single point incremental forming of sheet metal. CIRP Annals - Manufacturing Technology. Volume 54. 2005. pp. 88–114.
- James M.N., Hattingh D.G., Asquith D., Newby M., Doubell P. Applications of residual stress in combatting fatigue and fracture. Procedia Structural Integrity. Volume 2. 2016. pp. 11–25.
- Tanaka S., Nakamura T., Hayakawa K., Nakamura H., Motomura K. Residual stress in sheet metal parts made by incremental forming process. AIP Conference Proceedings. 2007, pp. 775–780.
- Radu C., Tampu C., Cristea I., Chirita B. The effect of residual stresses on the accuracy of parts processed by SPIF. Materials and Manufacturing Processes. Volume 28. 2013. pp. 572– 576.
- Zolotukhin P.I., Volodin I.M., Karpaitis E.P., Volodin A.I., Schmidt A.A. Study of the spring back of calibres in material forming processes of roll forging mills. Ironmaking and Steelmaking. Volume 45. 2017. pp. 1-5.
- López C., Elías-Zúñiga A., Jiménez I., Martínez-Romero O., Siller HR., Diabb J.M. Experimental Determination of Residual Stresses Generated by Single Point Incremental Forming of AlSi10Mg Sheets Produced Using SLM Additive Manufacturing Process. Materials (Basel). Volume 11(12). 2018. 2542.
- Noyan I.C., Cohen J.B. Determination of Strain and Stress Fields by Diffraction Methods. Residual Stress. 1987. pp. 117–163.
- Walton H.W. Deflection Methods to Estimate Residual Stress. Handbook of Residual Stress and Deformation of Steel. ASM International. 2002. pp. 89–98.
- Shemetev, G.F. Alyuminievye splavy: sostavy, svoystva, primenenie [Elektronnyy resurs]: uchebnoe posobie po kursu «Proizvodstvo otlivok iz splavov tsvetnykh metallov». Ch.1 / G.F. Shemetev; Sankt-Peterburgskiy gosudarstvennyy politekhnicheskiy universitet. – Elektron. tekstovye dan. (1 fayl : 2,6 Mb). — SPb., 2012. – Zagl. s titul. ekrana. – Svobodnyy dostup iz seti Internet (chtenie, pechat', kopirovanie). – Tekstovyy dokument. URL: http://elib.spbstu.ru/dl/2747.pdf.