Critical Assessment of Novel Developments in HPGR Technology Using DEM

Advances in high-pressure grinding roll (HGPR) technology since its first commercial application in the cement industry include new roll wear protection techniques and new confinement systems. The latter contribute to reductions in the edge effects in an attempt to reach a more homogenous product si...

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Main Authors: Victor A. Rodriguez, Gabriel K. P. Barrios, Túlio M. Campos, Luís Marcelo Tavares
Format: Article
Language:English
Published: MDPI AG 2024-04-01
Series:Materials
Subjects:
Online Access:https://www.mdpi.com/1996-1944/17/7/1665
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author Victor A. Rodriguez
Gabriel K. P. Barrios
Túlio M. Campos
Luís Marcelo Tavares
author_facet Victor A. Rodriguez
Gabriel K. P. Barrios
Túlio M. Campos
Luís Marcelo Tavares
author_sort Victor A. Rodriguez
collection DOAJ
description Advances in high-pressure grinding roll (HGPR) technology since its first commercial application in the cement industry include new roll wear protection techniques and new confinement systems. The latter contribute to reductions in the edge effects in an attempt to reach a more homogenous product size along the rolls. Additional advances in this technology have been made in recent years, while modeling and simulation tools are also reaching maturity and can now be used to subject such novel developments to detailed scrutiny. This work applies a hybrid approach combining advanced simulations using the discrete element method, the particle replacement model and multibody dynamics to a phenomenological population balance model to critically assess two recent advances in HPGR technology: spring-loaded cheek plates and the offset roller press. Force and torque controllers, included in the EDEM 2022.1 software, were used to describe the responses of the geometries in contact with the granular material processed. Simulations showed that while the former successfully reduced the lateral bypass of the material by as much as 65% when cheek plates became severely worn, the latter demonstrated lower throughput and higher potential wear but an ability to generate a finer product than the traditional design.
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spelling doaj.art-4009de691f5149bf930b7ccf059b196d2024-04-12T13:22:16ZengMDPI AGMaterials1996-19442024-04-01177166510.3390/ma17071665Critical Assessment of Novel Developments in HPGR Technology Using DEMVictor A. Rodriguez0Gabriel K. P. Barrios1Túlio M. Campos2Luís Marcelo Tavares3Department of Metallurgical and Materials Engineering, Universidade Federal do Rio de Janeiro, Rio de Janeiro 21941-972, BrazilDepartment of Metallurgical and Materials Engineering, Universidade Federal do Rio de Janeiro, Rio de Janeiro 21941-972, BrazilDepartment of Metallurgical and Materials Engineering, Universidade Federal do Rio de Janeiro, Rio de Janeiro 21941-972, BrazilDepartment of Metallurgical and Materials Engineering, Universidade Federal do Rio de Janeiro, Rio de Janeiro 21941-972, BrazilAdvances in high-pressure grinding roll (HGPR) technology since its first commercial application in the cement industry include new roll wear protection techniques and new confinement systems. The latter contribute to reductions in the edge effects in an attempt to reach a more homogenous product size along the rolls. Additional advances in this technology have been made in recent years, while modeling and simulation tools are also reaching maturity and can now be used to subject such novel developments to detailed scrutiny. This work applies a hybrid approach combining advanced simulations using the discrete element method, the particle replacement model and multibody dynamics to a phenomenological population balance model to critically assess two recent advances in HPGR technology: spring-loaded cheek plates and the offset roller press. Force and torque controllers, included in the EDEM 2022.1 software, were used to describe the responses of the geometries in contact with the granular material processed. Simulations showed that while the former successfully reduced the lateral bypass of the material by as much as 65% when cheek plates became severely worn, the latter demonstrated lower throughput and higher potential wear but an ability to generate a finer product than the traditional design.https://www.mdpi.com/1996-1944/17/7/1665comminutionhigh-pressure grinding rollssimulationdiscrete element methodTavares breakage model
spellingShingle Victor A. Rodriguez
Gabriel K. P. Barrios
Túlio M. Campos
Luís Marcelo Tavares
Critical Assessment of Novel Developments in HPGR Technology Using DEM
Materials
comminution
high-pressure grinding rolls
simulation
discrete element method
Tavares breakage model
title Critical Assessment of Novel Developments in HPGR Technology Using DEM
title_full Critical Assessment of Novel Developments in HPGR Technology Using DEM
title_fullStr Critical Assessment of Novel Developments in HPGR Technology Using DEM
title_full_unstemmed Critical Assessment of Novel Developments in HPGR Technology Using DEM
title_short Critical Assessment of Novel Developments in HPGR Technology Using DEM
title_sort critical assessment of novel developments in hpgr technology using dem
topic comminution
high-pressure grinding rolls
simulation
discrete element method
Tavares breakage model
url https://www.mdpi.com/1996-1944/17/7/1665
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