Structural and compressibility properties of weft-knitted rib fabrics from glass yarn

Year 2022, , 21 - 34, 30.06.2022

Mehmet Erdem İnce

https://doi.org/10.51354/mjen.943729

Abstract

The structural and compressibility properties of the weft-knitted glass yarn fabrics from 1x1, 2x2, English, and fisherman rib architectures were investigated in this study. Due to their tight structures; 2x2 and fisherman rib fabric architectures exhibited higher loop density, and shorter loop length than 1x1 and English rib fabric architectures. English and fisherman rib fabric architectures displayed higher fiber volume fraction than 1x1 and 2x2 rib architectures in multi-layer compaction and recovery tests where the pressure was varied between 2 and 200 kPa. Number of layer increased the fiber content that pointed the nesting between the fabric layers. As a result of lack of complete recovery from compression; the fabrics exhibited lower thicknesses (i.e. higher fiber volume fractions) during the recovery periods than they did during the compression periods. A second order polynomial regression model with 0,89 R2 (coefficient of determination) was developed to estimate the fiber volume fraction by means of knit architecture, number of fabric layers, pressure, and measurement period.

Keywords

glass yarn, weft-knitted fabric, fabric structural properties, fabric compressibility

Supporting Institution

Gaziantep University, Bilimsel Araştırma Projeleri (BAP) Birimi, Gaziantep, Turkey

Project Number

MF.YLT.18.02

Thanks

This work was supported by the Bilimsel Araştırma Projeleri (BAP) unit of Gaziantep University, Turkey under the grant number of MF.YLT.18.02.

References

• Referans1 Chawla K.K., Composite Materials: Science and Engineering. New York, Springer, 2019.
• Referans2 Mazumdar S.K., Composites manufacturing: materials, products, and process engineering. Boca Raton Fla, CRC Press, 2002.
• Referans3 Hammami A., Gebart B.R., “Analysis of the Vacuum Infusion Molding Process”, Polymer Composites, 21, (2000), 28-40.
• Referans4 Correia N.C., Robitaille F., Long A.C., Rudd C.D., Simacek P., Advani S.G. “Use of Resin Transfer Molding Simulation to Predict Flow, Saturation, and Compaction in the VARTM Process”, Journal of Fluids Engineering, 126, (2004), 210-215.
• Referans5 Govignon Q., Bickerton S., Morris J., Kelly P.A. “Full field monitoring of the resin flow and laminate properties during the resin infusion process”, Composites Part A: Applied Science and Manufacturing, 39, (2008), 1412-1426.
• Referans6 Pearce N., Summerscales J., “The compressibility of a reinforcement fabric”, Composites Manufacturing, 6, (1995), 15-21.
• Referans7 Lekakou C., Johari M.A.K.B., Bader M.G. “Compressibility and flow permeability of two-dimensional woven reinforcements in the processing of composites”, Polymer Composites, 17, (1996), 666-672.
• Referans8 Robitaille F., Gauvin R., “Compaction of Textile Reinforcements for Composites Manufacturing. I: Review of Experimental Results”, Polymer Composites”, 19, (1998), 198-216.
• Referans9 Luo Y., Verpoest I., “Compressibility and Relaxation of a New Sandwich Textile Preform for Liquid Composite Molding, Polymer Composites”, 20, (1999), 179-191.
• Referans10 Potluri P., Sagar T.V., “Compaction modelling of textile preforms for composite structures”, Composites Structures, 86, (2008), 177-185.
• Referans11 Lomov P., Molnár K., “Compressibility of carbon fabrics with needless electrospun PAN nanofibrous interleaves”, Express Polymer Letters, 10, (2016), 25-35.
• Referans12 Yousaf Z., Potluri P., Withers P.J. “Influence of tow architecture on compaction and nesting in textile preforms”, Applied Composite Materials, 24, (2017), 337-350.
• Referans13 Gommers B., Verpoest I., Van Houtte P. “Analysis of knitted fabric reinforced composites”, Composites Part A: Applied Science and Manufacturing, 29, (1998), 1579-1588.
• Referans14 Pandita S.D., Falconet D., Verpoest I. “Impact properties of weft knitted fabric reinforced composites”, Composite Science and Technology, 62, (2002), 1113-1123.
• Referans15 Pamuk G., Çeken F., “Manufacturing of Weft-Knitted Fabric Reinforced Composite Materials: A Review”, Materials and Manufacturing Processes, 23, (2008), 635-640.
• Referans16 Ciobanu L., “Development of 3D Knitted Fabrics for Advanced Composite Materials”, in Advances in Composite Materials – Ecodesign and Analysis, Edited by Brahim Attaf, InTech, 2011, pp. 161-192.
• Referans17 Marmaralı A.B., Atkı Örmeciliğine Giriş, İzmir, E.Ü Tekstil ve Konfeksiyon Araştırma – Uygulama Merkezi, 2004.
• Referans18 Marmaralı A., Kretzshmar S.D., Örme Terimleri ve Tanımlamaları, İzmir, E.Ü Tekstil ve Konfeksiyon Araştırma – Uygulama Merkezi, 2004.
• Referans19 Standard Test Methods for Mass per Unit Area (Weight) of Fabric, ASTM D3776, 2009.
• Referans20 Standard Test Methods for Wale and Course Count of Weft Knitted Fabrics, ASTM D8007, 2015.
• Referans21 British Standard Methods of test for Knitted Fabrics, BS 5441, 1998.
• Referans22 Statistical Software / JMP Software from SAS, 2021. [Online]. Available: https://www.jmp.com/en_us/home.html. [Accessed: May 27, 2021].
• Referans23 Kane C.D., Patil U.J., Sudhakar P. “Studies on the Influence of Knit Structure and Stitch Length on Ring and Compact Yarn Single Jersey Fabric Properties”, Textile Research Journal, 77, (2007), 572-582.
• Referans24 Uyanık S., Değirmenci Z., Topalbekiroğlu M., Geyik F., “Examining the relation between the number and location of tuck stitches and bursting strength in circular knitted fabrics”, Fibres & Textiles, 24, (2016), 114-119.
• Referans25 Uyanık S., Topalbekiroğlu M., “The effect of knit structures with tuck stitches on fabric properties and pilling resistance”, The Journal of the Textile Institute, 108, (2017), 1584-1589.
• Referans26 İnce M.E., Yildirim H., “Air permeability and bursting strength of weft-knitted fabrics from glass yarn. Part II: knit architecture effect”, The Journal of the Textile İnstitute, 110, (2019), 1072-1084.