@ARTICLE{Postek_E._Peridynamic_2019, author={Postek, E. and Pęcherski, R.B. and Nowak, Z.}, volume={vol. 64}, number={No 4}, journal={Archives of Metallurgy and Materials}, pages={1603-1610}, howpublished={online}, year={2019}, publisher={Institute of Metallurgy and Materials Science of Polish Academy of Sciences}, publisher={Committee of Materials Engineering and Metallurgy of Polish Academy of Sciences}, abstract={In the last 20 years, a new meshless computational method has been developed that is called peridynamics. The method is based on the parallelized code. The subject of the study is the deformation of open-cell copper foams under dynamic compression. The computational model of virtual cellular material is considered. The skeleton structure of such a virtual cellular material can be rescaled according to requirements. The material of the skeleton is assumed as the oxygen free high conductivity (OFHC) copper. The OFHC copper powder can be applied in additive manufacturing to produce the open-cell multifunctional structures, e.g., crush resistant heat exchangers, heat capacitors, etc. In considered peridynamic computations the foam skeleton is described with the use of an elastic-plastic model with isotropic hardening. The dynamic process of compression and crushing with different impact velocities is simulated.}, type={Article}, title={Peridynamic Simulation of Crushing Processes in Copper Open-Cell Foam}, URL={http://czasopisma.pan.pl/Content/113621/PDF/AMM-2019-4-52-Nowak.pdf}, keywords={virtual cellular material, metallic foams, OFHC copper, elastic-plastic model, numerical methods, peridynamics, crushing process}, }