Topics covered
- Industry challenges in grinding optimisation.
- High-energy consumption in grinding operations.
- Limitations of conventional models.
- Why advanced simulation tools are needed.
- DEM simulations in milling applications.
- Fundamentals of DEM particle dynamics.
- Case studies: wear analysis, charge motion, energy efficiency.
Presenter
Boris Sullcahuaman, Molycop Senior CAE (Computer-aided Engineering) Simulation Engineer
Synopsis
In this webinar recording, Boris guides participants through Discrete Element Method (DEM) fundamentals, practical case studies and the latest research trends, showing how DEM supports mill design, optimisation and operational efficiency.Discrete Element Method simulations have become a powerful numerical tool for modelling and analysing particle behaviour in grinding mills and comminution circuits. From understanding charge motion and energy distribution to predicting liner wear and particle size distribution, DEM provides insights that complement both experimental studies and industrial practice.
What you’ll learn
- Understanding charge motion and energy distribution.
- How to predict liner wear and particle size distribution.
- How DEM supports mill design, optimisation and operational efficiency.
Presenter
Boris Sullcahuaman
Molycop Senior CAE Simulation Engineer
Boris holds a Master of Science in Mechanical Engineering from the University of São Paulo and a degree in Mechanical Engineering from Pontificia Universidad Católica del Perú. With more than 10 years’ experience in mechanical design, numerical modelling and applied engineering in the mining sector, he leads the CAE team dedicated to analysing the operational conditions of SAG and ball mills through advanced simulations.