인조 스웨이드의 표면특성
Surface Properties of Artificial Suedes
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조회
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다운로드
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인용
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참고문헌
키워드
초록
This study examines the difference of surface properties according to napping characteristic of artificial suedes, measuring surface structure observation, the contact/non-contact method roughness, warm-cool feeling of touch,and subjective hand evaluation. Surface and cross-section observations showed a discernible difference in fineness, curl,length, mount of napping, and covering power of base fabric. The surface properties of artificial suede evaluated by KESFB4showed that the shorter napping length the more smooth surface and the roughness increased reciprocally with friction resistance and surface contour when the nap length reaches a high level. The surface roughness measuring system applied a laser displacement sensor by a non-contact method to assess napping characteristic and the base fabric and napping height. Surface roughness decreased when napping was uniformly covered with base fabric; however, the surface roughness increased specifically with the uneven covering power of the base fabric. For qmax of the suedes, those that had short and smaller amounts of napping increased; however, the napping of length and amount at some stage generated a low qmax value. The warm sensation in all suedes were strongly perceived, but the cool sensation of the perception was lower in the subjective evaluation. Smoothness and softness were perceived when the suede has a long and large amount napping; however, smoothness and hardness were perceived when the suede was short and with the uneven covering power.
Abstract
This study examines the difference of surface properties according to napping characteristic of artificial suedes, measuring surface structure observation, the contact/non-contact method roughness, warm-cool feeling of touch,and subjective hand evaluation. Surface and cross-section observations showed a discernible difference in fineness, curl,length, mount of napping, and covering power of base fabric. The surface properties of artificial suede evaluated by KESFB4showed that the shorter napping length the more smooth surface and the roughness increased reciprocally with friction resistance and surface contour when the nap length reaches a high level. The surface roughness measuring system applied a laser displacement sensor by a non-contact method to assess napping characteristic and the base fabric and napping height. Surface roughness decreased when napping was uniformly covered with base fabric; however, the surface roughness increased specifically with the uneven covering power of the base fabric. For qmax of the suedes, those that had short and smaller amounts of napping increased; however, the napping of length and amount at some stage generated a low qmax value. The warm sensation in all suedes were strongly perceived, but the cool sensation of the perception was lower in the subjective evaluation. Smoothness and softness were perceived when the suede has a long and large amount napping; however, smoothness and hardness were perceived when the suede was short and with the uneven covering power.
참고문헌 (18)
- Bueno, M. A., "Noncontact measurements of sanding and raising effects", Textile Research Journal, 69(8), pp.570~575 (1999)[DOI]
- Bueno, M. A., "Instrumental measurement and macroscopical study of sanding and raising", Textile Research Journal, 67(11), pp.779~787 (1997)[DOI]
- Hsi, C. H., "Characterizing fabric pilling by using image-analysis techniques- Part I: Pill detection and description", Journal of the Textile Institute, 89(1), pp.80~95 (1998)[DOI]
- Jasper, W. J., "Image analysis of mispicks in woven fabric", Textile Research Journal, 65(11), pp.683~692 (1995)[DOI]
- Kawabata, S., "The standardization and analysis of hand evaluation (2nd ed.)" (1980), The hand evaluation and standardization committee, The Textile Machinery Society of Japan
- Kim, D. O., "Analysis of surface fibers by wavelet transform and subjective evaluation of wool fabrics", Korean Journal of the Science of Emotion and Sensibility, 5(3), pp.53~59 (2002)
- Kim, H. I., "Enhancement of dyeing fastness of artificial studies", Textile Coloration and Finishing, 18(4), pp.28~36 (2006)
- 권도연, "은사 혼합 편성물의 물성 및 태 연구", 한국의류산업학회지, 11(4), pp.641~647 (2009), 한국의류산업학회
- Kwon, Y. H., "Measurement of hairiness and analysis of surface roughness by using non-contact method for fabrics", Korean Journal of the Science of Emotion and Sensibility, 3(2), pp.9~15 (2000)
- 권영하, "레이저 길이 측정센서를 응용한 직물의 비접촉 표면 거칠기 측정", 한국섬유공학회지, 40(3), pp.287~295 (2003), 한국섬유공학회
- 오경화, "기저귀용 부직포의 표면특성과 태에 관한 연구", 한국의류학회지, 28(3,4), pp.491~498 (2004), 한국의류학회
- Ramgulam, R. B., "Measurement of fabric roughness by a non-contact method", Journal of the Textile Institute, 84(1), pp.99~106 (1993)[DOI]
- 노의경, "니트 소재의 선호도 세분화에 따른 주관적 태와 감성 비교", 한국의류학회지, 34(10), pp.1611~1620 (2010), 한국의류학회
- 노의경, "구조방정식을 이용한 소재의 구성특성, 질감 및 감성과 선호도간의 관계모형(제1보)-추동 여성 자켓용 소재의 무게 중심으로-", 한국의류학회지, 31(8), pp.1240~1251 (2007), 한국의류학회[DOI]
- Roh, E. K., "The subjective hand and preferences of man-made leather according to usage", Proceedings of 2012 Korean Society of Clothing and Textiles, Spring Conference, pp.192~ (2012)
- 심현섭, "안감용 직물의 태와 착용 쾌적성 평가", 한국의류산업학회지, 10(4), pp.537~543 (2008), 한국의류산업학회
- Shin, K. I., "A study on the handle and texture of artificial suede", Journal of the Korean Society of Clothing and Textiles, 24(1), pp.128~137 (2000)
- Wood, E. J., "Carpet texture measurement using image analysis", Textile Research Journal, 59(1), pp.1~12 (1989)[DOI]