Modelling and analysis of the mechanical and forming behaviours of 3D warp interlock carbon woven fabrics according to the structural design parameters

Korkmaz, Mehmet; Labanieh, Ahmad Rashed; Boussu, François; Okur, Ayşe

doi:10.1080/00405000.2022.2026566

The Journal of The Textile Institute

2022

DOI: 10.1080/00405000.2022.2026566

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Modelling and analysis of the mechanical and forming behaviours of 3D warp interlock carbon woven fabrics according to the structural design parameters

Mehmet Korkmaz

Ahmad Rashed Labanieh

François Boussu

et al.

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Cited by 2 publications

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“…In addition, it was found that because the metal z-filaments can sustain higher plastic deformation than their carbon counterpart, they are less effective than carbon z-filaments at increasing fatigue resistance under both mode I and mode II loadings [20]. Meanwhile, researchers also simulated the damage form of composites with 3D structures through various analysis models to predict the mechanical properties of composites [21][22][23][24]. However, there is currently limited research on the 3D preform structure design.…”

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Effect of angle interlocking/plain weave compound fabric system on mechanical properties of aramid epoxy resin composites

Xu,

Ma,

Yang

et al. 2023

Mater. Res. Express

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Preform is one of the important factors affecting the mechanical properties of textile composites. To further reflect the influence of the preform structure on the mechanical properties of composite materials, the angle interlocking and plain weave structures are configured in a certain proportion to form a composite fabric with both structures. The results show that the compound fabric preform has a positive effect on the improvement of the mechanical properties of AERC. An increase in the proportion of angle interlocking organization configuration in the compound fabric system is beneficial to the increase in tensile strength of AERC. In this experiment, when the ratio of angle interlocking structure and plain weave structure in the compound fabric system is 3:1, the tensile strength of AERC increases significantly, which is 80.98% higher than that of AERC with angle interlocking preformed structure. When the preform is made of compound fabric, the bending properties of AERC are greatly improved, and the bending strength is also increased 1.20 times compared to the AERC with angle interlock structure as the preform. When the ratio of angle interlock weave and plain weave in the compound fabric system is 1:3, the bending strength of AERC increases 1.81 times the maximum. The proportion of two fabric structures in the compound fabric system has a significant impact on the impact properties of AERC. The increase in the proportion of plain weave in the compound fabric system is not conducive to the increase in impact strength of AERC, and the large proportion of corner interlock configuration is conducive to the increase in bending strength of AERC. When the ratio of angle interlocking structure to plain weave structure is 2:1, the AERC has the maximum impact strength of 33.14 KJ/m2, which is increased by 26.28%.

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mentioning

confidence: 99%

Effect of angle interlocking/plain weave compound fabric system on mechanical properties of aramid epoxy resin composites

Xu,

Ma,

Yang

et al. 2023

Mater. Res. Express

View full text Add to dashboard Cite

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The low velocity impact properties of three- dimensional (3D) warp interlock woven composites according to the fabric architecture

Korkmaz,

Karakuzu,

Labanieh

et al. 2024

Journal of Composite Materials

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Three-dimensional (3D) warp interlock woven composites (3DWIWC) are in demand in various industries due to their excellent delamination resistance, damage tolerance and fracture toughness properties. The 3D warp interlock woven fabric architecture can be defined by numerous fabric parameters such as: the binding and stuffer warp yarns, the woven pattern, the presence of yarn groups, etc. …. The effect of the fabric architecture on the impact behaviour of 3DWIWC made with carbon yarns has not been fully investigated. The binding warp yarns with the weave pattern play the main role in the arrangement of yarns within the final composite. In order to highlight their main influence, the 3D woven composites had been differentiated according to the main fabric architectural parameters, which are the angle and depth of binding warp yarn, presence of stuffer warp yarn and weave pattern of binding warp yarn. Afterward, their low velocity impact properties and damage mechanisms were examined. Thanks to the precise combination of these internal parameters of the fabric architecture, the contact force and absorbed energy values of 3DWIWC could be increased almost %50 and %15, respectively. Moreover, their damage mechanisms could be significantly improved.

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Modelling and analysis of the mechanical and forming behaviours of 3D warp interlock carbon woven fabrics according to the structural design parameters

Cited by 2 publications

References 69 publications

Effect of angle interlocking/plain weave compound fabric system on mechanical properties of aramid epoxy resin composites

Effect of angle interlocking/plain weave compound fabric system on mechanical properties of aramid epoxy resin composites

The low velocity impact properties of three- dimensional (3D) warp interlock woven composites according to the fabric architecture

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