Sage Journals: Discover world-class research

Abstract

This study examined the different wear comfort properties of ZrC/graphite and Al₂O₃/graphite-embedded, heat-storage woven fabrics. ZrC/graphite and Al₂O₃/graphite-embedded, heat-storage polyethylene terephthalate (PET) filaments were spun on the pilot spinning equipment. The various wear comfort properties of the ceramic-embedded fabrics made from ZrC/graphite and Al₂O₃/graphite-embedded filaments were measured and compared with those of the regular PET/polyamide (PA) woven fabric. Surface temperatures of the ZrC/graphite and Al₂O₃/graphite-embedded fabrics, when irradiated by the light of a heat-emission bulb, were 5.1℃ and 8.4℃ higher than that of the regular PET/PA fabric, respectively. The water-absorption rate of the ceramic-embedded fabrics was 5 and 14 times higher than that of the regular PET/PA fabric, respectively. The breathability by the water vapor resistance (R_ef) of the ZrC/graphite-embedded fabric was superior to that of the regular PET/PA fabric. The heat-retention rates of the ceramic-embedded fabrics were more than two times higher than that of regular PET/PA fabrics. Furthermore, the Clo value of the ZrC/graphite-embedded fabric by the thermal manikin experiment was more than 10% higher than that of the Al₂O₃/graphite and regular PET/PA fabrics. The skin and microclimate temperatures of the ZrC/graphite-embedded fabrics during the wearer trial were higher than those of the Al₂O₃/graphite and regular PET/PA fabrics, which revealed the good heat-storage and -release properties of the ZrC/graphite-embedded fabric. However, the Al₂O₃ particles embedded in the yarns were assumed to give a unpleasant tactile effects.

Keywords

heat storage and release thermal manikin wearing comfort ZrC/graphite

Get full access to this article

View all access options for this article.

References

Unitika. Unitika’s activity fields: connected through technologies and principles, https://www.unitika.co.jp/e/company/img-pdf/download/p03-04.pdf (accessed 10 June 2017).

Kurray. Fabric, manmade leather, nonwoven fabric, hook and loop fasteners, http://www.kuraray.com/products/fiber (accessed 13 June 2017).

Mitsubishi Rayon Carbon Fiber and Composites, Inc. Safety data sheet, http://mrcfac.com/wp-content/uploads/2013/09/SDS-Grafil-precision_cut-unsize-_05-17-12.pdf?1475465251 (accessed 20 July 2017).

KB Seiren. FLETHERMO. https://www.kbseiren.com/english/pro-flethermo.html (accessed 22 July 2017).

Lin

Hsu

. Study on the far infrared ray emission property and absorption performance of bamboo charcoal/polyvinyl alcohol fiber. Polym Plast Technol Eng 2007; 46: 1073–1078.

Hwang

Chen

Lou

et al.

Electromagnetic shielding effectiveness and functions of stainless steel/bamboo charcoal conductive fabrics. J Ind Text 2014; 44: 477–494.

Kuo

CFJ

Fan

et al.

Nano composite fiber process optimization for polypropylene with antibacterial and far-infrared ray emission properties. Text Res J 2016; 86: 1677–1687.

Lin

Huang

Lin

et al.

Far-infrared emissive polypropylene: wood flour wood plastic composites. Manufacturing technique and property evaluations. J Comp Mat 2016; 50: 2099–2109.

Lin

Chang

. Production of thermal insulation composites containing bamboo charcoal. Text Res J 2008; 78: 555–560.

10.

Bahng

Lee

. Development of heat-generating polyester fiber harnessing catalytic ceramic powder combined with heat-generating super microorganisms. Text Res J 2014; 84: 1220–1230.

11.

Furata

Shimizu

Kondo

. Evaluating the temperature and humidity characteristics of solar energy absorbing and retaining fabric. Text Res J 1996; 66: 123–130.

12.

Kim

. Far-infrared emission characteristics and wear comfort property of ZrC-imbedded heat storage knitted fabrics for emotional garments. Autex Res J 2017; 17: 142–151.

13.

Kim

. Far-infrared emission characteristics of germanium included fabrics for emotional garment. Kor. J. Sci. Emo and Sens 2010; 13: 687–692.

14.

Kim HA and Kim SJ. Heat storage and release characteristics of ceramic-imbedded woven fabric for emotional clothing. Autex Res J, 2018.

15.

Shim

Park

Shim

. Effect of ceramics on the physical and thermo-physiological performance of warm-up suit. Text Res J 2009; 79: 1557–1564.

16.

Lin

Jhang

Lin

et al.

Manufacturing techniques, mechanical properties, far infrared emissivity, and electromagnetic shielding effectiveness of stainless steel/polyester/bamboo charcoal knits. Fiber Polym 2017; 18: 597–604.

17.

Negishi

Kikuchi

. Infrared ray effects in biological systems. Ceramics Japan 1988; 23: 335–339.

18.

Kwon OK. Development trend on the mechanism of heat transfer and heat keepability for textiles. http://super.textopia.or.kr:8090/new/ktdi2/ktdi2021?no=000000030505 (accessed 6 August 2017).

19.

Asahi Kasei. Fibers & Textiles Bemberg. http://www.asahi-kasei.co.jp/fibers/en/products_bemberg.html (accessed 15 July 2017).

20.

ISO 11092:2014. Physiological effects – Measurement of thermal and water-vapour resistance under steady-state conditions (sweating guarded-hotplate test).

21.

KS K ISO 15831:2015. Clothing – Physiological effects – Measurement of thermal insulation by means of a thermal manikin.

22.

Kim

Barker

. Evaluation method of the water transport properties of sweat absorbent fabrics. J Korean Soc Cloth Text 1993; 17: 329–338.

23.

Kim

. Thermal comfort and tactile wearing performance of wool/nylon fabrics for tra-biz garment. Fashion Text Res J 2016; 18: 878–888.

24.

Yeo

Lee

Kim

. Far IR emission and thermal properties of ceramics coated nylon fabrics. J Korean Soc Cloth Text 1998; 22: 515–524.

Wear comfort properties of ZrC/Al 2 O 3 /graphite-embedded,heat-storage woven fabrics for garments

Abstract

Keywords

Get full access to this article

References