Advances in discrete element modeling of rock fracture for next-generation comminution models

Abstract This paper provides a methodological overview of the current state of the art in discrete element modeling of rock fracture in the context of comminution, an energy-intensive process of breaking down rocks into smaller sizes. This process is essential for liberating valuable metals and minerals that are in growing demand for the green transition and the electrification of society. The paper covers the most recent developments and addresses fundamental issues in the bonded discrete element method, the lattice element method, the particle replacement method, and the level-set discrete element method. We argue that the most effective modeling approach must emerge from a synergy between solid mechanics, rock mechanics, and the comminution field—an effort made by this collaborating multidisciplinary group, with the goal of making the next generation of comminution models, powered by GPU-accelerated high-performance computing, more reflective of real-life rock behavior, advancing energy-efficient mining.

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Publication Details

Journal
Computational Particle Mechanics
Published
2025-11-08
DOI
https://doi.org/10.1007/s40571-025-01092-y
Primary Topic
Mineral Processing and Grinding
Type
article
Field-Weighted Citation Impact
0.00

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article

Advances in discrete element modeling of rock fracture for next-generation comminution models

Vedad Tojaga, Michael Denzel, Magnus Evertsson, Jacinto Ulloa et al.
Computational Particle Mechanics
Mineral Processing and Grinding
article

Advances in discrete element modeling of rock fracture for next-generation comminution models

Vedad Tojaga, Michael Denzel, Magnus Evertsson, Jacinto Ulloa, Johannes Quist, Timo Saksala, Adnan Ibrahimbegović, Mijo Nikolić, Adam Bilock
article en

Abstract

Abstract This paper provides a methodological overview of the current state of the art in discrete element modeling of rock fracture in the context of comminution, an energy-intensive process of breaking down rocks into smaller sizes. This process is essential for liberating valuable metals and minerals that are in growing demand for the green transition and the electrification of society. The paper covers the most recent developments and addresses fundamental issues in the bonded discrete element method, the lattice element method, the particle replacement method, and the level-set discrete element method. We argue that the most effective modeling approach must emerge from a synergy between solid mechanics, rock mechanics, and the comminution field—an effort made by this collaborating multidisciplinary group, with the goal of making the next generation of comminution models, powered by GPU-accelerated high-performance computing, more reflective of real-life rock behavior, advancing energy-efficient mining.

Computational Particle MechanicsVol. 12(6)
Université de Technologie de Compiègne (FR), Tampere University (FI), University of Michigan (US), Sorbonne Université (FR), Institute of Particle Physics (CA), Tofwerk (Switzerland) (CH), Fraunhofer Chalmers Research Centre for Industrial Mathematics (SE), Chalmers University of Technology (SE), University of Split (HR)
National Science Foundation, Hrvatska Zaklada za Znanost, Division of Chemical, Bioengineering, Environmental, and Transport Systems
Openalex Percentile: Top 65%
Mineral Processing and Grinding
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