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Research Article | Open Access

Influence of the surface free energy of liquids and the liquid distribution on the friction of paper wipers

Toshiaki Nishi1()Takeshi Yamaguchi1,2
Graduate School of Engineering, Tohoku University, Sendai 980-8579, Japan
Graduate School of Biomedical Engineering, Tohoku University, Sendai 980-8579, Japan
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Abstract

Various soft materials, e.g., papers, cloths, and sponges, can absorb water. In this study, we demonstrated the influence of the surface free energy of liquid and the liquid distribution on the friction behavior of a paper wiper on a glass plate. The friction test was performed by varying the liquid content in the paper wiper. Compared with the dry condition, the friction coefficient increased 5.14 times when a certain part of the interface was occupied with water. We found that this high friction effect decreased with the surface free energy of the liquid, and the contact between the liquid droplets in the paper wiper and the glass plate was required to realize a high friction effect. This high friction effect is observed for paper wipers and other soft materials that can absorb liquids, e.g., cloths and sponges, and the findings of this study are expected to help design the friction properties of soft materials containing small amounts of liquid.

References

[1]

Sivamani R K, Wu G C, Gitis N V, Maibach H I. Tribological testing of skin products: Gender, age, and ethnicity on the volar forearm. Skin Res Technol 9(4): 299–305 (2003)

[2]

Lodén M, Olsson H, Axéll T, Linde Y W. Friction, capacitance and transepidermal water loss (TEWL) in dry atopic and normal skin. Br J Dermatol 126(2): 137–141 (1992)

[3]

Zhu Y H, Song S P, Luo W, Elias P M, Man M Q. Characterization of skin friction coefficient, and relationship to stratum corneum hydration in a normal Chinese population. Skin Pharmacol Physiol 24(2): 81–86 (2011)

[4]

Derler S, Gerhardt L C, Lenz A, Bertaux E, Hadad M. Friction of human skin against smooth and rough glass as a function of the contact pressure. Tribol Int 42(11–12): 1565–1574 (2009)

[5]

Egawa M, Oguri M, Hirao T, Takahashi M, Miyakawa M. The evaluation of skin friction using a frictional feel analyzer. Skin Res Technol 8(1): 41–51 (2002)

[6]

Comaish S, Bottoms E. The skin and friction: Deviations from amonton’s laws, and the effects of hydration and lubrication. Br J Dermatol 84(1): 37–43 (1971)

[7]

Kenins P. Influence of fiber type and moisture on measured fabric-to-skin friction. Text Res J 64(12): 722–728 (1994)

[8]

Highley K R, Coomey M, DenBeste M, Wolfram L J. Frictional properties of skin. J Invest Dermatol 69(3): 303–305 (1977)

[9]

Elsner P, Wilhelm D, Maibach H I. Frictional properties of human forearm and vulvar skin: Influence of age and correlation with transepidermal water loss and capacitance. Dermatologica 181(2): 88–91 (1990)

[10]

Pasumarty S M, Johnson S A, Watson S A, Adams M J. Friction of the human finger pad: Influence of moisture, occlusion and velocity. Tribol Lett 44(2): 117 (2011)

[11]

Nishi T, Yamaguchi T, Shibata K, Hokkirigawa K. Friction behavior between an artificial skin block and a glass plate under unlubricated and partly/completely water-lubricated conditions. Tribol Int 163: 107179 (2021)

[12]

Nishi T, Yamaguchi T, Shibata K, Hokkirigawa K. Optimizing the frictional behavior of partially wetting soft contacts as measured with hydrogel covered silicones. Tribol Int 153: 106586 (2021)

[13]

Nishi T, Yamaguchi T, Shibata K, Hokkirigawa K. Friction behavior of silicone rubber hemisphere under non-uniform wetting states: With water droplets in air or air bubbles in water. Tribol Int 155: 106769 (2021)

[14]

Nishi T, Yamaguchi T, Hokkirigawa K. Development of high slip-resistant footwear outsole using rubber surface filled with activated carbon/sodium chloride. Sci Rep 12(1): 267 (2022)

[15]

Nishi T. High friction effect on water-lubricated floor by the addition of silicone rubber particles to diene rubber. Tribol Int 176: 107900 (2022)

[16]

Nishi T. Effects of wettability on tribology of soft matter. J Jpn Soc Tribologis 64(10): 588–593 (2019) (in Japanese)

[17]

Nishi T, Moriyasu K, Harano K, Nishiwaki T. Influence of dewettability on rubber friction properties with different surface roughness under water/ethanol/glycerol lubricated conditions. Tribol Online 11(5): 601–607 (2016)

[18]

Nishi T. Influence of lubricant properties and contacting velocity on real contact formation between rubber and glass in a contact process. Tribol Int 127: 240–244 (2018)

[19]

Nishi T. Influence of curvature radius, elastic modulus, and contact velocity on real contact formation between rubber hemisphere and glass plate during contact process under a water-lubricated condition. Tribol Int 130: 284–288 (2019)

[20]

Nishi T, Yamaguchi T, Shibata K, Hokkirigawa K. Influence of unforced dewetting and enforced wetting on real contact formation and friction behavior between rubber hemisphere and glass plate during contacting and sliding processes. Tribol Int 141: 105921 (2020)

[21]

Roberts A D, Tabor D. The extrusion of liquids between highly elastic solids. Proc R Soc Lond A Mat 325(1562): 323–345 (1971)

[22]

Brochard-Wyart F, de Gennes P G. Dewetting of a water film between a solid and a rubber. J Phys: Condens Matter 6(23A): A9–A12 (1994)

[23]

Chudak M, Kwaks J S, Snoeijer J H, Darhuber A A. Non-axisymmetric elastohydrodynamic solid–liquid–solid dewetting: Experiments and numerical modelling. Eur Phys J E 43(1): 2 (2020)

[24]

Nishi T, Matsumura A, Koshida M, Matsumoto T, Yamaguchi T. Influences of wettability and geometry on adhesion force between sportswear fabric and human/artificial skin. Tribol Online 18(6): 353–364 (2023)

[25]

Nishi T, Kobayashi S, Yamaguchi T. High friction of paper wipers in partially wet conditions: Effect of three-dimensional nonuniform wetting. Tribol Int 193: 109426 (2024)

[26]
Technology Reports Centre Staff, Department of Prices and Consumer Protection Staff, UK. Alcoholometry: “International Alcoholometric Tables”. Orpington (UK): Technology Reports Centre, Department of Industry for the Department of Prices and Consumer Protection, 1975.
[27]
Hata K. Chemical Handbook, 3rd edn. Tokyo (Japan): Marubeni Corporation, 1984. (in Japanese)
[28]

Otsu N. A threshold selection method from gray-level histograms. IEEE Trans Syst Man Cybern 9(1): 62–66 (1979)

[29]

Johnson K L, Kendall K, Roberts A D. Surface energy and the contact of elastic solids. Proc R Soc Lond A Mat 324: 301–313 (1971)

[30]

Martin P, Silberzan P, Brochard-Wyart F. Sessile droplets at a solid/elastomer interface. Langmuir 13(18): 4910–4914 (1997)

[31]

Martin P, Brochard-Wyart F. Dewetting at soft interfaces. Phys Rev Lett 80: 3296–3299 (1998)

[32]

Martin A, Clain J, Buguin A, Brochard-Wyart F. Wetting transitions at soft, sliding interfaces. Phys Rev E 65: 031605 (2002)

Friction
Article number: 9440970
Cite this article:
Nishi T, Yamaguchi T. Influence of the surface free energy of liquids and the liquid distribution on the friction of paper wipers. Friction, 2025, 13(3): 9440970. https://doi.org/10.26599/FRICT.2025.9440970
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