Journal of Textile Research ›› 2021, Vol. 42 ›› Issue (02): 93-100.doi: 10.13475/j.fzxb.20201005008

• Textile Engineering • Previous Articles     Next Articles

Threshold and intensity evaluation of skin wetness perception under dynamic contact with fabrics

ZHANG Zhaohua1,2(), TANG Xiangning1, LI Jun1,2, LI Luyao1   

  1. 1. College of Fashion and Design, Donghua University, Shanghai 200051, China
    2. Key Laboratory of Clothing Design and Technology, Ministry of Education, Donghua University, Shanghai 200051, China
  • Received:2020-10-26 Revised:2020-11-30 Online:2021-02-15 Published:2021-02-23

Abstract:

To gain insight into how fabrics affect the perception of wetness under dynamic skin contact at different velocities, the influencing mechanism of absolute threshold and intensity of the perception of wetness were investigated. By applying quantitative amounts of water (low, medium, and high) to each of the testing fabrics, participants reported the intensity of perceived wetness on a psychometric scale. In addition, water was supplied continually with a pump until the threshold of wetness was perceived by the participants. At the same time, the temperature sensors were used to record local skin temperature and calculate skin cooling rate. The results indicate that skin cooling rate has a significant positive correlation with wetness intensity rating, while a negative correlation with absolute threshold. The intensity rating of wetness perception is predicted by the physical parameters of the fabrics, that is maximum transient thermal flow, water content, and friction coefficient, while wetness threshold was predicted by wetting time and coefficient of friction. The threshold detection was qualified to evaluate the sensitivity to wetness at the initial detection of moisture on the skin, while the stimulus intensity rating would give a better prediction at the moisture absorption stage. This study provides the evaluation technology for designing clothing with desirable wetness levels.

Key words: fabric, skin, dynamic contact, wetness perception, absolute threshold, intensity rating

CLC Number: 

  • TS941.16

Tab.1

Fabric specification parameters"

组别 试样
编号
纤维成分 组织 面密度/
(g·m-2)
厚度/
mm
透气性/
(mm·s-1)
薄型
(0.67~
0.75 mm)
L1 棉 100% 纬平针 152 0.70 552.85
L2 麻 100% 纬平针 143 0.72 3 501.85
L3 涤纶100% 纬平针 154 0.75 1 508.81
L4 Coolmax 100% 珠地 148 0.71 936.65
L5 锦/氨纶
(82/18)
纬平针 164 0.67 1 234.17
厚型
(0.97~
1.03 mm)
H1 棉 100% 纬平针 224 1.03 457.24
H2 棉 100% 毛圈 202 1.01 343.16
H3 涤纶100% 纬平针 223 0.97 1 040.57
H4 涤纶100% 毛圈 221 1.03 1 070.70
参照 R 棉/涤纶
(65/35)
纬平针 181 0.79 1 500.01

Fig.1

Testing device for dynamic contact between skin and fabric"

Fig.2

Experimental setup"

Fig.3

Wetness rating scale"

Fig.4

Absolute threshold of wetness perception of fabrics at three velocities"

Fig.5

Wetness perception rating of each fabric under different water contents at contacting velocity of V1 (a); V2 (b) and V3 (c)"

Fig.6

Comparison between wetness rating and wetness threshold detection"

[1] DRIVER Jon, SPENCE Charles. Multisensory perception: beyond modularity and convergence[J]. Current Biology, 2000,10(20):731-735.
[2] GERRETT Nicola, OUZZAHRA Yacine, COLEBY Samantha, et al. Thermal sensitivity to warmth during rest and exercise: a sex comparison[J]. European Journal of Applied Physiology, 2014,114(7):1451-1462.
doi: 10.1007/s00421-014-2875-0
[3] SWEENEY Maureen M, BRANSON Donna H. Sensorial comfort: part I: a psychophysical method for assessing moisture sensation in clothing[J]. Textile Research Journal, 1990,60(7):371-377.
[4] JEON Eunkyung, YOO Shinjung, KIM Eunae. Psychophysical determination of moisture perception in high-performance shirt fabrics in relationtosweating level[J]. Ergonomics, 2011,54(6):576-586.
[5] TIEST Wouter M Bergmann, KOSTERS N Dolfine, KAPPERS Astrid M L, et al. Haptic perception of wetness[J]. Acta Psychologica, 2012,141(2):159-163.
pmid: 22964056
[6] FILINGERI Davide, REDORTIER Bernard, HODDER Simon, et al. The role of decreasing contact temperatures and skin cooling in the perception of skin wetness[J]. Neuroscience Letters, 2013,551:65-69.
pmid: 23886487
[7] KAPLAN Sibel, OKUR Ayse. Determination of coolness and dampness sensations created by fabrics by forearm test and fabric measurements[J]. Journal of Sensory Studies, 2009,24(4):479-497.
[8] HU Junyan, LI Yi. Psycho-physiological mechanisms of thermal and moisture perceptions to the touch of knitted fabrics[J]. Arbete Och Halsa Vetenskaplig Skriftserie, 2000 (8):102-106.
[9] RACCUGLIA Margherita, HODDER Simon, HAVENITH George. Human wetness perception in relation to textile water absorption parameters under static skin contact[J]. Textile Research Journal, 2017,87(20):2449-2463.
[10] TANG K P M, KAN C W, FAN J T. Psychophysical measurement of wet and clingy sensation of fabrics by the volar forearm test[J]. Journal of Sensory Studies, 2015,30(4):329-347.
[11] CHAU Kam Hong, TANG Ka Po Maggie, KAN Chi Wai. Subjective wet perception assessment of fabrics with different drying time[J]. Royal Society Open Science, 2018,5(8):180798.
pmid: 30225071
[12] ZHANG Zhaohua, TANG Xiangning, LI Jun, et al. The effect of dynamic friction with wet fabrics on skin wetness perception[J]. International Journal of Occupational Safety and Ergonomics, 2020,26(2):370-383.
[13] LI Yi, PLANTE A M, HOLCOMBE B V. The physical mechanisms of the perception of dampness in fabrics[J]. The Annals of Physiological Anthropology, 1992,11(6):631-634.
[14] RACCUGLIA Margherita, PISTAK Kolby, HEYDE Christian, et al. Human wetness perception of fabrics under dynamic skin contact[J]. Textile Research Journal, 2018,88(19):2155-2168.
[15] FILINGERI Davide, ACKERLEY Rochelle. The biology of skin wetness perception and its implications in manual function and for reproducing complex somatosensory signals in neuroprosthetics[J]. Journal of Neurophysiology, 2017,117(4):1761-1775.
doi: 10.1152/jn.00883.2016 pmid: 28123008
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