kdtree++ OpenCL Peridynamics solver: OpenCL implementation of a high performance 3D peridynamic model on graphics accelerators. Parallel processing is one of the major trends in the computational mechanics community. Due to inherent limitations in processor design, manufacturers have shifted towards the multi- and many-core architectures. The graphics processing units (GPUs) are gaining more and more popularity due to high availability and processing power as well as maturity of development tools and community experience. In this research we describe a rather general approach to using OpenCL implementation of 3D Peridynamics model on GPU platform. Peridynamics is a non-local continuum theory for describing the behavior of material used especially when damage and crack nucleation or propagation is of interest. The steps taken for developing an OpenMP code from the serial one as well as the comparison between OpenCL and OpenMP codes are provided. Optimization techniques and their effects on the performance of the code are described. The implementations are tested on some 3D benchmarks with hundred of thousands to millions of nodes. The behavior of codes in terms of being memory or compute bound are analyzed. In all test cases reported, the OpenCL implementation consistently outperforms serial and OpenMP ones and paves the road for the development of high performance Peridynamics codes.

References in zbMATH (referenced in 11 articles , 1 standard article )

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  1. Shojaei, Arman; Hermann, Alexander; Cyron, Christian J.; Seleson, Pablo; Silling, Stewart A.: A hybrid meshfree discretization to improve the numerical performance of peridynamic models (2022)
  2. Boys, B.; Dodwell, T. J.; Hobbs, M.; Girolami, M.: PeriPy -- a high performance peridynamics package (2021)
  3. Giannakeas, Ilias N.; Papathanasiou, Theodosios K.; Fallah, Arash S.; Bahai, Hamid: Coupling XFEM and peridynamics for brittle fracture simulation. II: Adaptive relocation strategy (2020)
  4. Liu, Shuo; Fang, Guodong; Liang, Jun; Fu, Maoqing; Wang, Bing: A new type of peridynamics: element-based peridynamics (2020)
  5. Mossaiby, Farshid; Shojaei, Arman; Boroomand, Bijan; Zaccariotto, Mirco; Galvanetto, Ugo: Local Dirichlet-type absorbing boundary conditions for transient elastic wave propagation problems (2020)
  6. Shojaei, Arman; Hermann, Alexander; Seleson, Pablo; Cyron, Christian J.: Dirichlet absorbing boundary conditions for classical and peridynamic diffusion-type models (2020)
  7. Mossaiby, Farshid; Joulaian, Meysam; Düster, Alexander: The spectral cell method for wave propagation in heterogeneous materials simulated on multiple GPUs and CPUs (2019)
  8. Shojaei, Arman; Mossaiby, Farshid; Zaccariotto, Mirco; Galvanetto, Ugo: A local collocation method to construct Dirichlet-type absorbing boundary conditions for transient scalar wave propagation problems (2019)
  9. Zhang, Ting; Zhou, Xiaoping: A modified axisymmetric ordinary state-based peridynamics with shear deformation for elastic and fracture problems in brittle solids (2019)
  10. Hattori, Gabriel; Trevelyan, Jon; Coombs, William M.: A non-ordinary state-based peridynamics framework for anisotropic materials (2018)
  11. Mossaiby, F.; Shojaei, A.; Zaccariotto, M.; Galvanetto, U.: OpenCL implementation of a high performance 3D peridynamic model on graphics accelerators (2017)