PFC3D

PFC3D (Particle Flow Code in 3 Dimensions) is a discontinuum code used in analysis, testing, and research in any field where the interaction of many discrete objects exhibiting large-strain and/or fracturing is required. Because PFC3D is not designed to examine a particular type of problem, its range extends to any analysis that examines the dynamic behavior of a particulate system. Highlighted Features: Dynamic motion and interaction of assemblies of arbitrarily-sized particles are modeled; Properties are associated with individual particles, allowing continuous gradations in properties and particle radii; Clump logic supports creation of groups of slaved particles that may represent general grain shapes; Any number of arbitrarily-oriented line segments or planar convex polygons may be specified as walls, each with its own contact properties


References in zbMATH (referenced in 13 articles )

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  1. Ebrahimian, B.; Alsaleh, M. I.; Kahbasi, A.: Comparative FE-studies of interface behavior of granular Cosserat materials under constant pressure and constant volume conditions (2021)
  2. Chen, Xinran; Qian, Jinsong; Zhang, Lei; Ling, Jianming: Investigating the combined effects of inherent and stress-induced anisotropy on the mechanical behavior of granular materials using three-dimensional discrete element method (2020)
  3. Sun, Hui; Yan, Qin; Han, Bing; Li, Shuchen; Feng, Xianda: Study on the manifold cover Lagrangian integral point method based on barycentric interpolation (2020)
  4. Jiang, Mingjing; Zhang, An; Du, Wenhao: Discrete element analysis of the fabric evolution of granular soils during cyclic loading (2017)
  5. Akram, M. S.; Sharrock, G. B.: Physical and numerical investigation of a cemented granular assembly of steel spheres (2010)
  6. Marketos, G.; Bolton, Malcolm D.: Flat boundaries and their effect on sand testing (2010)
  7. Yan, Ying; Ji, Shunying: Discrete element modeling of direct shear tests for a granular material (2010)
  8. Tawadrous, A. S.; Degagné, D.; Pierce, M.; Mas Ivars, D.: Prediction of uniaxial compression PFC3D model micro-properties using artificial neural networks (2009)
  9. Teufelsbauer, Harald; Wang, Y.; Chiou, M.-c.; Wu, W.: Flow-obstacle interaction in rapid granular avalanches: DEM simulation and comparison with experiment (2009)
  10. El Shamy, U.; Gröger, T.: Micromechanical aspects of the shear strength of wet granular soils (2008)
  11. Marketos, G.; Bolton, M. D.: Quantifying the extent of crushing in granular materials: a probability-based predictive method (2007)
  12. Yang, C.-T.; Hsieh, S.-H.: An object-oriented framework for versatile discrete objects simulation using design patterns (2005)
  13. Zeghal, M.; El Shamy, U.: A continuum-discrete hydromechanical analysis of granular deposit liquefaction (2004)