Multiscale damage analysis of a plain carbon weave incorporating material variability

L. F. Varandas; A. R. Melro; G. Catalanotti; B. G. Falzon

Multiscale damage analysis of a plain carbon weave incorporating material variability

L. F. Varandas, A. R. Melro, G. Catalanotti, B. G. Falzon

Queen's University Belfast

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution

Abstract

The mechanical behaviour and progressive damage of a plain woven carbon-epoxy fabric at different length scales is modelled, taking into account the weave's geometric, and consequently, material variability. Micromechanical simulations are performed with different fibre volume fractions using a fibre distribution algorithm in order to obtain the mechanical properties of the tows along their length. A Representative Unit Cell (RUC) is generated and a set of in-plane Periodic Boundary Conditions (PBCs) implemented in order to run non-homogenised mesomechanical analyses. The influence of material variability is captured through volumetric homogenisation to study damage evolution and corresponding stiffness degradation in a plain weave fibre architecture under different loading conditions.

Original language	English
Title of host publication	ECCM 2018: 18th European Conference on Composite Materials: Proceedings
Publisher	Applied Mechanics Laboratory
ISBN (Electronic)	9781510896932
Publication status	Published - 01 Dec 2019
Event	18th European Conference on Composite Materials, ECCM 2018 - Athens, Greece Duration: 24 Jun 2018 → 28 Jun 2018

Conference

Conference	18th European Conference on Composite Materials, ECCM 2018
Country/Territory	Greece
City	Athens
Period	24/06/2018 → 28/06/2018

Keywords

Computational mechanics
Finite Element Analysis (FEA)
Mechanical properties
Multiscale modelling
Textile composites

ASJC Scopus subject areas

Ceramics and Composites

Cite this

@inproceedings{dec43e11b50d428087051140e4a3fe53,

title = "Multiscale damage analysis of a plain carbon weave incorporating material variability",

abstract = "The mechanical behaviour and progressive damage of a plain woven carbon-epoxy fabric at different length scales is modelled, taking into account the weave's geometric, and consequently, material variability. Micromechanical simulations are performed with different fibre volume fractions using a fibre distribution algorithm in order to obtain the mechanical properties of the tows along their length. A Representative Unit Cell (RUC) is generated and a set of in-plane Periodic Boundary Conditions (PBCs) implemented in order to run non-homogenised mesomechanical analyses. The influence of material variability is captured through volumetric homogenisation to study damage evolution and corresponding stiffness degradation in a plain weave fibre architecture under different loading conditions.",

keywords = "Computational mechanics, Finite Element Analysis (FEA), Mechanical properties, Multiscale modelling, Textile composites",

author = "Varandas, {L. F.} and Melro, {A. R.} and G. Catalanotti and Falzon, {B. G.}",

year = "2019",

month = dec,

day = "1",

language = "English",

booktitle = "ECCM 2018: 18th European Conference on Composite Materials: Proceedings",

publisher = "Applied Mechanics Laboratory",

note = "18th European Conference on Composite Materials, ECCM 2018 ; Conference date: 24-06-2018 Through 28-06-2018",

}

TY - GEN

T1 - Multiscale damage analysis of a plain carbon weave incorporating material variability

AU - Varandas, L. F.

AU - Melro, A. R.

AU - Catalanotti, G.

AU - Falzon, B. G.

PY - 2019/12/1

Y1 - 2019/12/1

N2 - The mechanical behaviour and progressive damage of a plain woven carbon-epoxy fabric at different length scales is modelled, taking into account the weave's geometric, and consequently, material variability. Micromechanical simulations are performed with different fibre volume fractions using a fibre distribution algorithm in order to obtain the mechanical properties of the tows along their length. A Representative Unit Cell (RUC) is generated and a set of in-plane Periodic Boundary Conditions (PBCs) implemented in order to run non-homogenised mesomechanical analyses. The influence of material variability is captured through volumetric homogenisation to study damage evolution and corresponding stiffness degradation in a plain weave fibre architecture under different loading conditions.

AB - The mechanical behaviour and progressive damage of a plain woven carbon-epoxy fabric at different length scales is modelled, taking into account the weave's geometric, and consequently, material variability. Micromechanical simulations are performed with different fibre volume fractions using a fibre distribution algorithm in order to obtain the mechanical properties of the tows along their length. A Representative Unit Cell (RUC) is generated and a set of in-plane Periodic Boundary Conditions (PBCs) implemented in order to run non-homogenised mesomechanical analyses. The influence of material variability is captured through volumetric homogenisation to study damage evolution and corresponding stiffness degradation in a plain weave fibre architecture under different loading conditions.

KW - Computational mechanics

KW - Finite Element Analysis (FEA)

KW - Mechanical properties

KW - Multiscale modelling

KW - Textile composites

M3 - Conference contribution

BT - ECCM 2018: 18th European Conference on Composite Materials: Proceedings

PB - Applied Mechanics Laboratory

T2 - 18th European Conference on Composite Materials, ECCM 2018

Y2 - 24 June 2018 through 28 June 2018

ER -

Multiscale damage analysis of a plain carbon weave incorporating material variability

Abstract

Conference

Keywords

ASJC Scopus subject areas

Fingerprint

Cite this