Study of the effect of thermal conductivity on the anti-icing performance of coated fabrics

The anti-icing property of materials can be influenced by many factors, such as mechanical forces, electrostatic forces, van der Waals interaction and so on. In this research, the effect of thermal conductivity on the anti-icing performance of coated fabrics was studied. An instrument to observe the...

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Veröffentlicht in:Textile research journal 2020-09, Vol.90 (17-18), p.2035-2045
Hauptverfasser: Han, Lun, Zhao, Xiaoming, Shen, Yuhong
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container_title Textile research journal
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creator Han, Lun
Zhao, Xiaoming
Shen, Yuhong
description The anti-icing property of materials can be influenced by many factors, such as mechanical forces, electrostatic forces, van der Waals interaction and so on. In this research, the effect of thermal conductivity on the anti-icing performance of coated fabrics was studied. An instrument to observe the melting process of the ice on various materials was designed, by which the melting rate of the ice on the samples could be tested. A formula for the variation of the melting rate of the ice on the samples against the thermal conductivity of the samples was deduced using a mathematical method. It was proved that the formula can be used to study the effect of thermal conductivity on the anti-icing performance of coated fabrics. A coated fabric with anti-icing performance was prepared with Nomex IIIA fabrics, PU-2540 (Polyurethane-2540), Teflon emulsion, graphite powder, SiC powder and TG-581 (fluorine-containing water and oil repellent-581) using a knife coating method. The properties of the samples were investigated by using a video optical contact angle measuring instrument (OCA15 Pro), a thermal constants analyzer (TPS2500S, Hot Disk, Sweden), an anti-icing property tester, and other devices. Results show that the coated fabrics prepared in this manner have good performance in ease of ice removal and a low interaction with water and ice, resulting in good anti-icing properties.
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In this research, the effect of thermal conductivity on the anti-icing performance of coated fabrics was studied. An instrument to observe the melting process of the ice on various materials was designed, by which the melting rate of the ice on the samples could be tested. A formula for the variation of the melting rate of the ice on the samples against the thermal conductivity of the samples was deduced using a mathematical method. It was proved that the formula can be used to study the effect of thermal conductivity on the anti-icing performance of coated fabrics. A coated fabric with anti-icing performance was prepared with Nomex IIIA fabrics, PU-2540 (Polyurethane-2540), Teflon emulsion, graphite powder, SiC powder and TG-581 (fluorine-containing water and oil repellent-581) using a knife coating method. The properties of the samples were investigated by using a video optical contact angle measuring instrument (OCA15 Pro), a thermal constants analyzer (TPS2500S, Hot Disk, Sweden), an anti-icing property tester, and other devices. 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In this research, the effect of thermal conductivity on the anti-icing performance of coated fabrics was studied. An instrument to observe the melting process of the ice on various materials was designed, by which the melting rate of the ice on the samples could be tested. A formula for the variation of the melting rate of the ice on the samples against the thermal conductivity of the samples was deduced using a mathematical method. It was proved that the formula can be used to study the effect of thermal conductivity on the anti-icing performance of coated fabrics. A coated fabric with anti-icing performance was prepared with Nomex IIIA fabrics, PU-2540 (Polyurethane-2540), Teflon emulsion, graphite powder, SiC powder and TG-581 (fluorine-containing water and oil repellent-581) using a knife coating method. 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subjects Coatings
Contact angle
Deicing
Electrostatic properties
Fabrics
Fluorine
Heat conductivity
Heat transfer
Ice
Ice removal
Knife coating
Material properties
Mathematical analysis
Measuring instruments
Mechanical properties
Melting
Optical properties
Polytetrafluoroethylene
Polyurethane
Polyurethane resins
Silicon carbide
Textile composites
Thermal conductivity
title Study of the effect of thermal conductivity on the anti-icing performance of coated fabrics
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