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Abstrakty
This study examined the physical properties of polytrimethylene terephthalate (PTT)/Tencel/cotton air vortex yarns and the wear comfort of their knitted fabrics for high emotional garments. In fine yarn count, the initial modulus of the air vortex yarn was similar to the ring yarn because of the elastic property of the PTT fibers in the yarns. In particular, the thermal shrinkage of the air vortex yarns was higher than that of the ring yarns because of the sensible thermal shrinkage of the PTT fibers, which resulted in higher relaxation shrinkage of the air vortex knitted fabric than those of ring and compact knitted fabrics. On the basis of the wear comfort, the air vortex yarns are compatible with winter textile goods. The pilling of the air vortex knitted fabric was superior to that of the ring and compact yarns. The tactile hand of the air vortex yarn knitted fabrics was stiffer than that of the ring and compact yarn knitted fabrics. However, the harsh tactile hand of the air vortex knitted fabric was estimated to improve in the thinner fabrics by the low elastic modulus of fine yarn because of the PTT fibers in the air vortex yarns.
Czasopismo
Rocznik
Tom
Strony
279--287
Opis fizyczny
Bibliogr. 24 poz.
Twórcy
autor
- Korea Research Institute for Fashion Industry, Daegu 701-170, Korea
autor
- Dept. of Fiber System Engineering, Yeungnam Univ, Gyeongsan 712-749, Korea
Bibliografia
- [1] Basal, G., & Oxenham, W. (2006). Comparison of properties and structures of compact and conventional spun yarns. Textile Research Journal, 76(7), 567-575.
- [2] Beceren, Y., & Nergis, B. U. (2008). Comparison of the effects of cotton yarns produced by new, modified and conventional spinning systems on yarn and knitted fabric performance. Textile Research Journal, 78(4), 297-303.
- [3] Das, A., Zimniewska, M., & Mal, R. D. (2009). Studies on cotton-acrylic bulked yarns produced from different spinning technologies. Part II: fabric characteristics. The Journal of The Textile Institute, 100(5), 420-429.
- [4] Das, A., & Mal, R. D. (2009). Studies on cotton–acrylic bulked yarns produced from different spinning technologies. Part I: yarn characteristics. The Journal of The Textile Institute, 100(1), 44-50.
- [5] Erdumlu, N., Ozipek, B., Oztuna, A. S., & Cetinkaya, S. (2009). Investigation of vortex spun yarn properties in comparison with conventional ring and open-end rotor spun yarns. Textile Research Journal, 79(7), 585-595.
- [6] Hsieh, Y. L. (1995). Liquid transport in fabric structures. Textile Research Journal, 65(5), 299-307.
- [7] Ito, H., & Muraoka, Y. (1993). Water transport along textile fibers as measured by an electrical capacitance technique. Textile Research Journal, 63(7), 414-420.
- [8] Kawabata, S. (1980). The standardization and analysis of hand evaluation. The hand evaluation and standardization committee.
- [9] Kilic, G. B., & Sülar, V. (2012). Frictional properties of cotton-Tencel yarns spun in different spinning systems. Textile Research Journal, 82(8), 755-765.
- [10] Kilic, M., & Okur, A. (2011). The properties of cotton-Tencel and cotton-Promodal blended yarns spun in different spinning systems. Textile Research Journal, 81(2), 156-172.
- [11] Kim, H. A. (2017). Physical properties of ring, compact, and air vortex yarns made of PTT/wool/modal and wearing comfort of their knitted fabrics for high emotional garments. The Journal of The Textile Institute, 108(9), 1647-1656.
- [12] Li, Q., Brady, P. R., Hurren, C. J., & Wang, X. G. (2008). The dimensional and mechanical properties of wool/polyester fabrics made from vortex and ring-spun yarns. Journal of the Textile Institute, 99(6), 561-568.
- [13] Liu, X., Jiao, S., & Wang, F. M. (2013). Configuring the spinning technology of PTT/PET bicomponent filaments according to fabric elasticity. Textile Research Journal, 83(5), 487-498.
- [14] Luo, J., Wang, F. M., Li, D., & Xu, B. (2011). Elasticity of woven fabrics made of polytrimethylene terephthalate/polyethylene terephthalate bicomponent filaments. Textile Research Journal, 81(8), 865-870.
- [15] Luo, J., Wang, F., & Xu, B. (2011). Factors affecting crimp configuration of PTT/PET bi-component filaments. Textile Research Journal, 81(5), 538-544.
- [16] Mhetre, S., & Parachuru, R. (2010). The effect of fabric structure and yarn-to-yarn liquid migration on liquid transport in fabrics. The Journal of The Textile Institute, 101(7), 621-626.
- [17] Ortlek, H. G., & Ulku, S. (2005). Effect of some variables on properties of 100% cotton vortex spun yarn. Textile research journal, 75(6), 458-461.
- [18] Ovejero, R. G., Sánchez, J. R., Ovejero, J. B., Valldeperas, J., & Lis, M. J. (2007). Kinetic and diffusional approach to the dyeing behavior of the polyester PTT. Textile Research Journal, 77(10), 804-809.
- [19] Öztürk, M. K., Nergis, B., & Candan, C. (2011). A study of wicking properties of cotton-acrylic yarns and knitted fabrics. Textile Research Journal, 81(3), 324-328.
- [20] Paek, S. L. (1995). Effect of yarn type and twist factor on air permeability, absorbency, and hand properties of open-end and ring-spun yarn fabrics. Journal of the Textile Institute, 86(4), 581-589.
- [21] Soe, A. K., Takahashi, M., Nakajima, M., Matsuo, T., & Matsumoto, T. (2004). Structure and properties of MVS yarns in comparison with ring yarns and open-end rotor spun yarns. Textile research journal, 74(9), 819-826.
- [22] Suzuki, Y., & Sukigara, S. (2013). Mechanical and tactile properties of plain knitted fabrics produced from rayon Vortex yarns. Textile Research Journal, 83(7), 740-751.
- [23] Ünal, P. G. (2010). Investigation of some handle properties of fabrics woven with two folded yarns of different spinning systems. Textile Research Journal, 80(19), 2007-2015.
- [24] Zhao, L., Hu, H., & Wang, S. H. (2011). Fuzzy-integrative judgment on the end-use performance of knitted fabrics made with polytrimethylene terephthalate blended yarns. Textile research journal, 81(17), 1739-1747.
Uwagi
Opracowanie rekordu w ramach umowy 509/P-DUN/2018 ze środków MNiSW przeznaczonych na działalność upowszechniającą naukę (2019).
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-24eef513-3a1b-47f8-b50a-a4827cc6376a