MercuryDPM

Fast, flexible particle simulations in complex geometries part II: Applications

Conference Paper (2017)
Author(s)

Thomas Weinhart (University of Twente)

Deepak R. Tunuguntla (University of Twente)

Marnix P. van Schrojenstein Lantman (University of Twente)

Irana F.C. Denissen (University of Twente)

R. Windows Yule Christopher (University of Twente)

Harmen Polman (University of Twente)

J. M.F. Tsang (University of Cambridge)

Binbin Jin (University of Cambridge)

Luca Orefice (Research Center Pharmaceutical Engineering (RCPE) GmbH)

Kasper Van Der Vaart (Stanford University)

Sudeshna Roy (University of Twente)

H. Shi (University of Twente)

Arianna Pagano (University of Strathclyde)

Wouter DenBreeijen (University of Twente)

Bert J. Scheper (University of Twente)

Ahmed Jarray (University of Twente)

Stefan Luding (University of Twente)

Anthony R. Thornton (University of Twente)

Affiliation
External organisation
More Info
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Publication Year
2017
Language
English
Affiliation
External organisation
Pages (from-to)
123-134
ISBN (electronic)
9788494690976

Abstract

MercuryDPM is a particle-simulation software developed open-source by a global network of researchers. It was designed ab initio to simulate realistic geometries and materials, thus it contains several unique features not found in any other particle simulation software. These features have been discussed in a companion paper published in the DEM7 conference proceedings; here we present several challenging setups implemented in MercuryDPM . Via these setups, we demonstrate the unique capability of the code to simulate and analyse highly complex geotechnical and industrial applications. The setups implemented include complex geometries such as (i) a screw conveyor, (ii) steady-state inflow conditions for chute flows, (iii) a confined conveyor belt to simulate a steady-state breaking wave, and (iii) a quasi-2D cylindrical slice to efficiently study shear flows. MercuryDPM is also parallel, which we showcase via a multi-million particle simulations of a rotating drum. We further demonstrate how to simulate complex particle interactions, including: (i) deformable, charged clay particles; and (ii) liquid bridges and liquid migration in wet particulates, (iii) non-spherical particles implemented via superquadrics. Finally, we show how to analyse and complex systems using the unique micro-macro mapping (coarse-graining) tool MercuryCG.

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