A Finite Element-Based Approach for Whole-System Simulation of Packaging Systems for their Improved Design and Operation

Ben J Hicks, Glen Mullineux, D Sirkett

Research output: Contribution to journalArticle

7 Citations (Scopus)

Abstract

The introduction of legislation to minimize packaging waste requires consumer goods manufacturers to use lighter-weight materials and increase the use of recycled materials. This is demanding that machinery manufacturers provide highly flexible machines and tooling capable of handling these materials and new package designs. However, the ability of manufacturers to achieve this is all but prevented by a lack of fundamental understanding of machine-material interactions and an ability to generate such understanding. One way to overcome this is to use advanced simulation tools to represent the whole system including machine, process, materials and product. A finite element-based simulation has been created to represent the in-process behaviour of a packing system. The simulation focuses on the critical transition between flattened and erected states of a carton. In order to successfully simulate such a complex process, there are a number of major challenges concerning the representation of packaging materials and their properties, changing material behaviour during processing, machinery simulation and process modelling (simulating the interfacial interactions that take place during processing). The application of the whole-system simulation for the purposes of improved design and operation are discussed with respect to four activities: design and setup of tooling, determination of optimal process settings, specification of material properties and the design of the pack. In all cases, a strong correlation was observed between the theoretical results and those obtained practically, thereby enabling quantitative understanding and quantitative rules to be generated.
Original languageEnglish
Pages (from-to)209-227
Number of pages19
JournalPackaging Technology and Science
Volume22
Issue number4
DOIs
Publication statusPublished - 2009

Fingerprint

Packaging
Machinery
Packaging materials
Materials handling
Processing
Materials properties
Specifications

Keywords

  • finite element analysis
  • packaging
  • cartonboard

Cite this

A Finite Element-Based Approach for Whole-System Simulation of Packaging Systems for their Improved Design and Operation. / Hicks, Ben J; Mullineux, Glen; Sirkett, D.

In: Packaging Technology and Science, Vol. 22, No. 4, 2009, p. 209-227.

Research output: Contribution to journalArticle

@article{12d5e246ebbd497ea88d8c06edcc05ca,
title = "A Finite Element-Based Approach for Whole-System Simulation of Packaging Systems for their Improved Design and Operation",
abstract = "The introduction of legislation to minimize packaging waste requires consumer goods manufacturers to use lighter-weight materials and increase the use of recycled materials. This is demanding that machinery manufacturers provide highly flexible machines and tooling capable of handling these materials and new package designs. However, the ability of manufacturers to achieve this is all but prevented by a lack of fundamental understanding of machine-material interactions and an ability to generate such understanding. One way to overcome this is to use advanced simulation tools to represent the whole system including machine, process, materials and product. A finite element-based simulation has been created to represent the in-process behaviour of a packing system. The simulation focuses on the critical transition between flattened and erected states of a carton. In order to successfully simulate such a complex process, there are a number of major challenges concerning the representation of packaging materials and their properties, changing material behaviour during processing, machinery simulation and process modelling (simulating the interfacial interactions that take place during processing). The application of the whole-system simulation for the purposes of improved design and operation are discussed with respect to four activities: design and setup of tooling, determination of optimal process settings, specification of material properties and the design of the pack. In all cases, a strong correlation was observed between the theoretical results and those obtained practically, thereby enabling quantitative understanding and quantitative rules to be generated.",
keywords = "finite element analysis, packaging, cartonboard",
author = "Hicks, {Ben J} and Glen Mullineux and D Sirkett",
year = "2009",
doi = "10.1002/pts.846",
language = "English",
volume = "22",
pages = "209--227",
journal = "Packaging Technology and Science",
issn = "0894-3214",
publisher = "John Wiley and Sons Inc.",
number = "4",

}

TY - JOUR

T1 - A Finite Element-Based Approach for Whole-System Simulation of Packaging Systems for their Improved Design and Operation

AU - Hicks, Ben J

AU - Mullineux, Glen

AU - Sirkett, D

PY - 2009

Y1 - 2009

N2 - The introduction of legislation to minimize packaging waste requires consumer goods manufacturers to use lighter-weight materials and increase the use of recycled materials. This is demanding that machinery manufacturers provide highly flexible machines and tooling capable of handling these materials and new package designs. However, the ability of manufacturers to achieve this is all but prevented by a lack of fundamental understanding of machine-material interactions and an ability to generate such understanding. One way to overcome this is to use advanced simulation tools to represent the whole system including machine, process, materials and product. A finite element-based simulation has been created to represent the in-process behaviour of a packing system. The simulation focuses on the critical transition between flattened and erected states of a carton. In order to successfully simulate such a complex process, there are a number of major challenges concerning the representation of packaging materials and their properties, changing material behaviour during processing, machinery simulation and process modelling (simulating the interfacial interactions that take place during processing). The application of the whole-system simulation for the purposes of improved design and operation are discussed with respect to four activities: design and setup of tooling, determination of optimal process settings, specification of material properties and the design of the pack. In all cases, a strong correlation was observed between the theoretical results and those obtained practically, thereby enabling quantitative understanding and quantitative rules to be generated.

AB - The introduction of legislation to minimize packaging waste requires consumer goods manufacturers to use lighter-weight materials and increase the use of recycled materials. This is demanding that machinery manufacturers provide highly flexible machines and tooling capable of handling these materials and new package designs. However, the ability of manufacturers to achieve this is all but prevented by a lack of fundamental understanding of machine-material interactions and an ability to generate such understanding. One way to overcome this is to use advanced simulation tools to represent the whole system including machine, process, materials and product. A finite element-based simulation has been created to represent the in-process behaviour of a packing system. The simulation focuses on the critical transition between flattened and erected states of a carton. In order to successfully simulate such a complex process, there are a number of major challenges concerning the representation of packaging materials and their properties, changing material behaviour during processing, machinery simulation and process modelling (simulating the interfacial interactions that take place during processing). The application of the whole-system simulation for the purposes of improved design and operation are discussed with respect to four activities: design and setup of tooling, determination of optimal process settings, specification of material properties and the design of the pack. In all cases, a strong correlation was observed between the theoretical results and those obtained practically, thereby enabling quantitative understanding and quantitative rules to be generated.

KW - finite element analysis

KW - packaging

KW - cartonboard

UR - http://www.scopus.com/inward/record.url?scp=67650818318&partnerID=8YFLogxK

UR - http://dx.doi.org/10.1002/pts.846

U2 - 10.1002/pts.846

DO - 10.1002/pts.846

M3 - Article

VL - 22

SP - 209

EP - 227

JO - Packaging Technology and Science

JF - Packaging Technology and Science

SN - 0894-3214

IS - 4

ER -