A Review of Some Innovative Concepts In The Weaving of Technical Fabrics
International Journal of Polymer and Textile Engineering |
© 2021 by SSRG - IJPTE Journal |
Volume 8 Issue 2 |
Year of Publication : 2021 |
Authors : Narayanan Gokarneshan, Ushakumari Ratna |
How to Cite?
Narayanan Gokarneshan, Ushakumari Ratna, "A Review of Some Innovative Concepts In The Weaving of Technical Fabrics," SSRG International Journal of Polymer and Textile Engineering, vol. 8, no. 2, pp. 9-12, 2021. Crossref, https://doi.org/10.14445/23942592/IJPTE-V8I2P103
Abstract:
The article comprehensively reviews some significant researches in the weaving of functional fabrics. Conventional 3D woven T-shaped preforms were modified for improving joint/peel-off strength of associated T-shaped polymeric composites. Preforms were modified at weaving level by preferred yarns orientations for better performance in associated composites. Major modifications studied are; the addition of supporting layer, single or double-crossing in joint layers, and crossing along with supporting layer (in a single sample). The tapered circular tubular (TCT) woven fabric has been applied successfully as the components in vascular prostheses. The application of tapered tubular woven fabric based on the existing weaving technology requires the densification of a large end to ensure porosity uniformity through the tapered tubule. Although the previously proposed equal-cover-factor (ECF) design technique overcame some disadvantages of the conventional densification methods, such as the protruding portions of the dropped yarns as well as the change of both fabric porosity and tensile strength, the off-loom weft density significantly deviates from the on-loom value.
Keywords:
Polymeric composites, Weaving, 3D woven, T-shaped preforms; Tapered, Tubular.
References:
[1] P.M. Wambua, &R. Anandjiwala, - A review of preforms for thecomposites industry. J.Ind.Tex.40(4)(2011) 310–333.
[2] X. Chen, X. Chen, L.W. Taylor, -An overview on fabricationof three- dimensional woven textile preforms for composites. Text.Res.J,81(9), 932–944,2011.
[3] M.S. Aly-Hassan, H. Hatta, &S. Wakayama, - Comparison of 2Dand 3D carbon / carbon composites with respect to damage and fractureresistance. Carbon, 41(5), 1069–1078,2003.
[4] Y.A. Bahei-el-din, & M.A. Zikry, - Impact-induced deformationfields in 2D and 3D woven composites. Composites Science andTechnology, 63(7)(2003) 923–942.
[5] R.A. Black, &T.V. How, - Attenuation of flow disturbances intapered arterial grafts. J.Biomech. Eng., 111(4)(1989) 303–310.
[6] K.E. Brown, A. Usman, M.R. Kibbe, M.D. Morasch, J.S. Matsumura,W.H. Pearce, P.D. Stein, - Effect of vessel taperingon the transition to turbulent flow: implications in the cardiovascularsystem. J.Biomech. Eng., 103(2) (1981) 116–120.
[7] S.B. Abdessalem, B. Durand, S. Akesbi, N. Chakfe, &J.G. Kretz, - Fluid-structure interaction in a free end textile vascularprosthesis. The Eur.Phy. J. Appl.Phy., 31(3) (2005) 211–216.
[8] C. Singh, C.S. Wong, &X.G. Wang, - Medical textiles as vascularimplants and their success to mimic natural arteries. J.Funct. Biomaterials, 6(3) (2015) 500–525.
[9] B. Thomas, &K.S. Sumam, - Blood flow in human arterial system-A review. 4th Intl. Conf. Emerging Trends inEngineering, Science and Technology (ICETEST), Vol. 24. ProcediaTechnology, Trichur, India: Elsevier Science BV. (2016) 339–346.
[10] R.A. Valencia, M.J. Garcıa, &J. Bustamantec, - A comparativecomputational study of blood flow pattern in exemplary textile vasculargrafts. J. Text. Inst., 108(6)(2017) 1–14.
[11] U. Krueger, A. Huhle, K. Krys, &H. Scholz, - Effect of taperedgrafts on hemodynamics and flow rate in dialysis access grafts. Artificial Organs, 28(7)(2004) 623–628.
[12] M. Sarmast, H.Niroomand-Oscuii, F. Ghalichi, &E. Samiei, - Evaluation of the hemodynamics in straight 6-mm and tapered 6-to 8-mm grafts as upper arm hemodialysis vascular access. Med. Bio. Eng.& Comp., 52(9) (2014) 797–811.
[13] K.E. Brown, A. Usman, M.R. Kibbe, M.D. Morasch, J.S. Matsumura,W.H. Pearce, M.K. Eskandari, - Carotid stentingusing tapered and nontapered stents: associated neurological complicationsand restenosis rates. Annals Vasc. Surg., 23(4)(2009) 439–445.
[14] W. Wang, W. Guo, X.P. Liu, X. Jia, H.P. Zhang, M.H. Zhang, &X. Du, - Study of ascending aortic elasticity in the Chinesepopulation with a high risk of aortic diseases. Int. J. Clinical and Exp. Med., 8(3)(2015) 3381–3390.
[15] K. Dransfield, C. Baillie, Y. Mai, K. Dransfield, C. Baillie, &Y. Mai, - Improving the delamination resistance of CFRP by stitching – areview. Comp. Sci. Tech., 50(3)(1994) 305–317.
[16] X. Wang, F.M.C. Ng, &J. Hu, J., - Shapeable stretch textiles via simpleweaves for seamless woven fashion. Text. Res. J., 79(18)(2009) 1715–1724.
[17] K. Bilisik, &N.B.N. Karaduman, - Fibre Architecturesfor composite applications. In S. Raul Fangueiro& S. Rana, Springer Science+Business Media(Ed.), Fibrous and textilematerials for compositeapplications, (2016) 75–134.
[18] B. Jang, M. Cholakara, B.P. Jang, &W.K. Shih, - Mechanicalproperties in multidimensional composites. Poly. Eng. Sci., 31(1)(1991) 40–46.
[19] N. Khokar, - 3D-weaving: Theory and practice. J.Tex. Inst., 92(2)(2001) 193–207.
[20] J.A. Soden, &B.J. Hill, - Conventional weaving of shaped preformsfor engineering composites, Comp. Part A: Appl. Sci. and Manufacturing, 29(7) (1998) 757–762.
[21] Y. Wang, &C. Soutis, - Fatigue behaviour of composite T-jointsin wind turbine blade applications. Appl. Comp. Mat.,24(2016) 1–15.
[22] P.B.Stickler, &M. Ramulu, - Investigation of mechanical behaviour of transverse stitched T-joints with PR520 resin in flexure andtension. Comp.Stru., 52(3–4)(2001) 307–314.
[23] D.U. Shah, - Developing plant fibre composites for structuralapplications by optimising composite parameters : A critical review.J. Mat. Sci., 48(18)(2013) 6083–6107.
[24] M. Umair, Y. Nawab,&K. Shaker, - Development andcharacterization of three- dimensional woven-shaped preformsand their associated composites. J. Reinforced Plastics and Comp., 34(24)(2015) 2018–2028.
[25] B. Sugun, &D. Sandeep, - Development of single-layer 3D “T”profile with fillet for composite “T” joints. J. Ind. Tex.,46(3) (2016) 887–900.
[26] K.K. Verma, D.N. Sandeep, B.S. Sugun, &S. Athimoolaganesh, -“Novel design of cocured composite T joints with integrally woven 3Dinserts”. Proc. 5th World Conf. 3D Fabrics andTheir Applications. Delhi., 16–17.2013.
[27] A. Mumtazi, K. Faizan, S. Salma, Z. Muhammad, N. Yasir, R. Rabia, A.M. Anam, M. Naveed&S.A. Aima, - Novelderivatives of 3D woven T-shaped composites with improved performance, J. Text. Inst. 4 (2018) 46-51.
[28] D.J.E. Lapointe, L.J. Vincent, &L.T. Wright, U.S. PatentNo.4771518-A. Washington, DC: U.S. Patent and Trademark Office.1988.
[29] S. Winner, &J. Coy, US Patent No. US9827086-B2.Washington, DC: U.S. Patent and Trademark Office.2016.
[30] S.C. Lee, J.W. Chung, J.H. Park, &S.G. Kang, Mechanicalproperties of newly developed ultra-thin bifurcated graft. Current Applied Physics, 12, S192–S197 (2012).
[31] T.V. How, -“Elastic deformation of a tapered vascular prosthesis.J.Mat. Sci.: Mat. Med., 2(2)(1991) 94–100.
[32] J.R. Hoffman, H.L. Tolsma, &L. Harmon, - U.S.PatentNo.3986828,. Washington, DC: U.S. Patent and Trademark Office.1976.
[33] R.E. Smith, &H. Ala, - U.S Patent No. 3853462. Washington,DC: U.S. Patent and Trademark Office.1974.
[34] X.Q. Dong, Y.L. Li, X. Ding, &L. Wang, - Research on themanufacture of tapered artificial vascular. Adv. Mat.Res., China: Tianjin Polytechnic Univercity, 331 (2011) 512–515.
[35] Y.Z. Wang, &Y.L. Li, - Research on auotomatic weaving of variablewidth fabric (Master’s thesis).Donghua University, Shanghai, China.2017.
[36] M. Fenye, L. Yuling, M. Yanxue&C. Xiaoying,- Development ofautomatic weaving technique of tapered circular tubular woven graft: a preliminary validation, J.Tex. Inst., 110:8 (2019) 1126-1131.