Discrete element method to model tension and bending for single layer 3-dimension systems

Dan Varney; Martti Toivakka; Douglas W Bousfield

Discrete element method to model tension and bending for single layer 3-dimension systems

Dan Varney, Martti Toivakka, Douglas W Bousfield

Research output: Other contribution

Abstract

A Discrete Element Method (DEM) based model has been expanded to simulate in-line tension and bending of single coating layers in three dimensions. The model can predict the modulus, maximum stress, and strain-at-failure for the coating layer when undergoing such deformations. The model makes these predictions for a variety of particle size distributions and for different binder packages. Inputs to the model include mechanical data for the pure binder systems and the coordinates for particle packings. The results are compared to experimental data and to two-dimensional simulations.

Original language	Undefined/Unknown
Publication status	Published - 2019
MoE publication type	O2 Other

Cite this

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title = "Discrete element method to model tension and bending for single layer 3-dimension systems",

abstract = "A Discrete Element Method (DEM) based model has been expanded to simulate in-line tension and bending of single coating layers in three dimensions. The model can predict the modulus, maximum stress, and strain-at-failure for the coating layer when undergoing such deformations. The model makes these predictions for a variety of particle size distributions and for different binder packages. Inputs to the model include mechanical data for the pure binder systems and the coordinates for particle packings. The results are compared to experimental data and to two-dimensional simulations.",

author = "Dan Varney and Martti Toivakka and {W Bousfield}, Douglas",

note = "paf Wednesday May 8.: CGA6.3 Ej {\"a}nnu publicerad? /MF Oral? Har mailat Toivakka [1.7.2020 LN] Toivakka vet inte, men han kontaktar Bousfield [2.7.2020 LN] Har p{\aa}mint Toivakka. Han f{\aa}r inte kontakt med f{\"o}rfattaren, sa att vi kan byta publikationstyp till O2. [24.9.2020] ------------------- Paper Conference and Trade Show (PaperCon 2019) : Indianapolis, Indiana, USA, 5-8 May 2019 http://toc.proceedings.com/50629webtoc.pdf ISBN 978-1-5108-9394-8",

year = "2019",

language = "Odefinierat/ok{\"a}nt",

type = "Other",

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T1 - Discrete element method to model tension and bending for single layer 3-dimension systems

AU - Varney, Dan

AU - Toivakka, Martti

AU - W Bousfield, Douglas

N1 - paf Wednesday May 8.: CGA6.3 Ej ännu publicerad? /MF Oral? Har mailat Toivakka [1.7.2020 LN] Toivakka vet inte, men han kontaktar Bousfield [2.7.2020 LN] Har påmint Toivakka. Han får inte kontakt med författaren, sa att vi kan byta publikationstyp till O2. [24.9.2020] ------------------- Paper Conference and Trade Show (PaperCon 2019) : Indianapolis, Indiana, USA, 5-8 May 2019 http://toc.proceedings.com/50629webtoc.pdf ISBN 978-1-5108-9394-8

PY - 2019

Y1 - 2019

N2 - A Discrete Element Method (DEM) based model has been expanded to simulate in-line tension and bending of single coating layers in three dimensions. The model can predict the modulus, maximum stress, and strain-at-failure for the coating layer when undergoing such deformations. The model makes these predictions for a variety of particle size distributions and for different binder packages. Inputs to the model include mechanical data for the pure binder systems and the coordinates for particle packings. The results are compared to experimental data and to two-dimensional simulations.

AB - A Discrete Element Method (DEM) based model has been expanded to simulate in-line tension and bending of single coating layers in three dimensions. The model can predict the modulus, maximum stress, and strain-at-failure for the coating layer when undergoing such deformations. The model makes these predictions for a variety of particle size distributions and for different binder packages. Inputs to the model include mechanical data for the pure binder systems and the coordinates for particle packings. The results are compared to experimental data and to two-dimensional simulations.

M3 - Övriga bidrag

ER -