This study evaluated the effect of the raising condition on the mechanical, comfort, and hand properties of artificial suede made of nylon/polyester microfibers, and identified those best suited for the consumer's needs. The suede became thicker and heavier; in addition, the wale density increased by repeated raisings as the base knits contracted and naps increased after a repeated raising process. Water vapor transmission decreased, but thermal resistance and water repellency increased. The increased number of raisings caused the suede to stiffen and not readily deform by compression; however, the suede had a soft and smooth surface. The thickness, weight, wale density, thermal resistance, and perception of luxuriousness increased between one and four cycles and remained unchanged at six cycles. The hand preference, preference for jackets, and luxuriousness of the suede improved with the number of raisings, with the best performance obtained at four raising cycles.
LeeJULeeHJChoH. The situation and prospect of manufacturing technology of artificial suede. TCF1998; 10(1): 5156–56.
2.
JungHJOhKW. Impacts of ethical consumption beliefs on attitudes toward eco-friendly faux leather apparel products and mediating roles of perceived consumer effectiveness and apparel environmental knowledge. J Korean Soc Cloth Text2013; 37(2): 125–137.
3.
ParkSHOhKWNaYK. The effects of environment-conscious consumer attitudes towards eco-friendly product and artificial leather fashion product purchase intentions. Fashion Text Res J2013; 15(1): 57–64.
HongCH. Solvent-free polyurethane-based artificial leather having the texture of human skin and the preparation method thereof, Patent 7812075, USA, 2010.
6.
OharaTSuzukiNNakajimaY. Polyurethane derived from biomass resources, method for producing same, and polyester polyol derived from biomass resources, Patent 2011125720 A1, WO, 2011.
7.
ParkSHOhKWKimSH. Reinforcement effect of cellulose nanowhisker on bio-based polyurethane. Compos Sci Technol2013; 86: 82–88.
8.
HuangCY. Method for manufacturing ecotypic artificial leather or leather-like and automatic assembly line thereof, Patent 2010022589 A1, WO, 2010.
9.
KimKSLeeMSShimHJ. Manufacturing and characterization of artificial suede made from split type fine fibers in wet process. Text Sci Eng2005; 42: 48–53.
10.
JungHJChangSHShimHJ. A study on the processing characteristics of artificial suede primary fabrics using sea-island type microfibers. Text Sci Eng2007; 44: 38–46.
11.
JungSJNohSC. Preparation of suede-like microfilament textiles, Patent 1020090040624, Korea, 2009.
12.
RoKY. Suede style knitted fabric and manufacturing method thereof, Patent 1019980022887, Korea, 1998.
13.
SongKCLeeYW. Method for manufacturing suede-like circular knitted fabric and the suede-like circular knitted fabric, Patent 1020000063986, Korea, 2002.
14.
NohSC. Preparation of microfilament suede-like textiles using nylon sea-island fiber, Patent 1020030093566, Korea, 2003.
15.
NohSCOkCM. Process of producing suede-like nylon microfilament textiles, Patent 1020090107948, Korea, 2009.
16.
IijimaHMiyoshiAOkamotoM. Ultrafine sheath-core composite fibers and composite sheets made thereof, Patent 4557972 A, USA, 1985.
17.
MakimuraMYamashitaS. Fabric comprising composite sheath-core fibers, fabric comprising bicomponent fiber bundles and process for its preparation, Patent 4663221 A, USA, 1987.
18.
HwangYN. A sea-island type composite fiber for raised warp knit fabric, and a process of preparing for the same, Patent 042529, WO, 2002.
19.
OkamotoMYoshidaS. Suede-like raised woven fabric and process for the preparation thereof, Patent 4136221, USA, 1979.
20.
NiederhauserDO. Suede-like product and process therefor, Patent 4233349, USA, 1980.
21.
WattKABachmanWE. Textured suede, Patent 4808458, USA, 1989.
22.
FujimotoIHayashiKMinemuraN. Suede-like raised woven fabric and process for the preparation thereof, Patent 4109038 A, USA, 1978.
23.
RohEKOhKW. Surface properties of artificial suedes. Fashion Text Res J2013; 15(2): 309–315.
24.
YoonHNBuckleyA. Improved comfort polyester—Part I: Transport properties and thermal comfort of polyester/cotton blend fabrics. Text Res J1984; 54(5): 289–298.
25.
HolliesNRS. Investigation of the factors influencing comfort in cotton apparel fabrics. Contract 12-14-100-7183(72), New Orleans: U.S. Dept. of Agriculture, 1965, pp. 1–42.
26.
LeeJMLeeSW. The effect of napping of knitted fabric on wear sensation. J Korean Soc Cloth Text1987; 11: 41–55.
27.
KwonHSKwonOKSungSK. Effects of treatment process and brushing condition on mechanical properties of brushed fabrics. Part 1—Mechanical properties of brushed fabrics. J Korean Soc Cloth Text1994; 18: 515–523.
28.
KwonHSKwonOKSungSK. Effects of treatment process and brushing condition on mechanical properties of brushed fabrics. Part 2—Drapability and wrinkle recovery of brushed fabrics. J Korean Soc Cloth Text1994; 18: 595–601.
29.
RohEKOhKW. The subjective hand and preferences of man-made leather according to use. In: Proceedings of the Korean Society of Clothing and Textiles conference, Seoul, Korea, 14 April 2012, pp. 192–192.
30.
ASTM E96M—12. Standard test methods for water vapor transmission of materials.
31.
ASTM D1518. Standard test method for thermal transmittance of textile materials—8.1 Option 1: Still air condition with box hood over plate.
32.
ASTM D123—13a. Standard terminology relating to textiles.
33.
KawabataS. The Standardization and Analysis of Hand Evaluation, 2nd edition. Osaka, Japan: Textile Machinery Society of Japan, 1980, pp. 7–20.
34.
WinakorLGoingsBD. Fashion preference—Measurement of change. Home Econ Res J1973; 1: 195–209.
35.
HolliesNRSCusterAGMorinCJ. Human perception analysis approach to clothing comfort. Textile Res J1979; 49: 557–564.
36.
KimKA. The effect of subjective evaluation of fabric hand on judge's age and specialty—Akaline hydrolyzed polyester fabrics. J Korean Soc Cloth Text1999; 23: 220–229.
37.
OgulataRTMezarciozS. Total porosity, theoretical analysis, and prediction of the air permeability of woven fabrics. J Text Inst2012; 103: 654–661.
38.
BarthlottWNeinhuisC. The purity of sacred lotus or escape from contamination in biological surfaces. Planta1997; 202: 1–8.
39.
Von BaeyerHC. The Lotus Effect. Science2000; 40: 12–15.
40.
RohEKOhKW. Subjective hand and physical properties of tricot based artificial suede according to raising finish. Fashion Text Res J 2014. 16: 1–7.
