In this article, the single-point incremental forming of sheet metals made of micro-alloyed steel and Al alloy is investi- gated by combining the results of numerical simulation and experimental characterization, performed during the process, as well as on the final product. A finite element model was developed to perform the process simulation, based on an explicit dynamic time integration scheme. The finite element outcomes were validated by comparison with experimental results. In particular, forming forces during the process, as well as the final shape and strain distribution on the finished component, were measured. The obtained results showed the capability of the finite element modelling to predict the material deformation process. This can be considered as a starting point for the reliable definition of the single-point incremental forming process parameters, thus avoiding expensive trial-and-error approaches, based on extensive experi- mental campaigns, with beneficial effects on production time.
Single-point incremental forming of sheet metals: Experimental study and numerical simulation / Benedetti, Matteo; Fontanari, Vigilio; Monelli, Bernardo Disma; Tassan, Marco. - In: PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS. PART B, JOURNAL OF ENGINEERING MANUFACTURE. - ISSN 0954-4054. - STAMPA. - 231:2(2017), pp. 301-312. [10.1177/0954405415612351]
Single-point incremental forming of sheet metals: Experimental study and numerical simulation
Benedetti, Matteo;Fontanari, Vigilio;Monelli, Bernardo Disma;
2017-01-01
Abstract
In this article, the single-point incremental forming of sheet metals made of micro-alloyed steel and Al alloy is investi- gated by combining the results of numerical simulation and experimental characterization, performed during the process, as well as on the final product. A finite element model was developed to perform the process simulation, based on an explicit dynamic time integration scheme. The finite element outcomes were validated by comparison with experimental results. In particular, forming forces during the process, as well as the final shape and strain distribution on the finished component, were measured. The obtained results showed the capability of the finite element modelling to predict the material deformation process. This can be considered as a starting point for the reliable definition of the single-point incremental forming process parameters, thus avoiding expensive trial-and-error approaches, based on extensive experi- mental campaigns, with beneficial effects on production time.File | Dimensione | Formato | |
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