Texture design for skin friction and touch perception of stainless steel surfaces

Sheng Zhang

Research output: ThesisPhD Thesis - Research UT, graduation UT

125 Downloads (Pure)

Abstract

Tactile perception a concept with mechanical, physiological and psychological perspective, is of particular concern to the industrial companies and research area. The hedonic attributes of tactile perception are influential to our daily life like wearing clothes, using personal care products, holding tool handles or in domestic appliances. A skin contact model was modified based on Hertzian and Westergaard model to take into account the influence of surface texture and orientation effect. This two-term friction model enables the prediction of the contact area, sliding friction between the skin and counter-surface. Furthermore, the tactile perception involved textures were designed and investigated in both perception experiments and skin friction measurements. The thesis focusses on the relationships among tactile perception, sub-micron surface roughness features and friction at light touch conditions, with the general aim to discover design principles that enhance tactile perception. For the perception experiments, a panel test was conducted and the subjective ratings from 0 to 10 were graded by each participant to describe the level of perceived roughness, perceived stickiness and perceived comfort. For the skin friction measurements, a multi-axis force/torque transducer was used to measure the dynamic friction between skin and counter-surface in vivo. The correlation of the perception experiment and friction measurement provides design tools for texture design of future product surfaces. With the presented tactile friction model, a strategy was extracted for optimizing surfaces with respect to tactility. The pivotal element is minimizing the adhesion term of friction by minimizing the contact area by designing a surface texture with minimal contact area in sliding motion. In addition, the orientation effect is another key factor for the texture design. The results of the study can be beneficial to understand the tactility related research and product developments in the future.
Original languageEnglish
Awarding Institution
  • University of Twente
Supervisors/Advisors
  • van der Heide, Emile , Supervisor
  • Zeng, Xiangqiong, Supervisor
  • van der Heide, E., Supervisor
  • Zeng, Xiangqiong, Supervisor
Award date22 Jun 2016
Place of PublicationEnschede
Publisher
Print ISBNs978-90-365-4150-3
DOIs
Publication statusPublished - 22 Jun 2016

Fingerprint

Skin friction
Stainless steel
Textures
Friction
Skin
Surface roughness
Domestic appliances
Experiments
Product development
Transducers
Adhesion
Torque
Industry

Keywords

  • METIS-317008
  • IR-100494

Cite this

Zhang, Sheng. / Texture design for skin friction and touch perception of stainless steel surfaces. Enschede : Universiteit Twente, 2016. 145 p.
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Texture design for skin friction and touch perception of stainless steel surfaces. / Zhang, Sheng.

Enschede : Universiteit Twente, 2016. 145 p.

Research output: ThesisPhD Thesis - Research UT, graduation UT

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T1 - Texture design for skin friction and touch perception of stainless steel surfaces

AU - Zhang, Sheng

PY - 2016/6/22

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N2 - Tactile perception a concept with mechanical, physiological and psychological perspective, is of particular concern to the industrial companies and research area. The hedonic attributes of tactile perception are influential to our daily life like wearing clothes, using personal care products, holding tool handles or in domestic appliances. A skin contact model was modified based on Hertzian and Westergaard model to take into account the influence of surface texture and orientation effect. This two-term friction model enables the prediction of the contact area, sliding friction between the skin and counter-surface. Furthermore, the tactile perception involved textures were designed and investigated in both perception experiments and skin friction measurements. The thesis focusses on the relationships among tactile perception, sub-micron surface roughness features and friction at light touch conditions, with the general aim to discover design principles that enhance tactile perception. For the perception experiments, a panel test was conducted and the subjective ratings from 0 to 10 were graded by each participant to describe the level of perceived roughness, perceived stickiness and perceived comfort. For the skin friction measurements, a multi-axis force/torque transducer was used to measure the dynamic friction between skin and counter-surface in vivo. The correlation of the perception experiment and friction measurement provides design tools for texture design of future product surfaces. With the presented tactile friction model, a strategy was extracted for optimizing surfaces with respect to tactility. The pivotal element is minimizing the adhesion term of friction by minimizing the contact area by designing a surface texture with minimal contact area in sliding motion. In addition, the orientation effect is another key factor for the texture design. The results of the study can be beneficial to understand the tactility related research and product developments in the future.

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