Toward durable anti/de-icing technologies: liquid-like surfaces with engineered abrasion resistance

Abstract

With the popularization of airplanes, high-speed railways and high-voltage transmission lines, the economic and safety problems caused by ice accretion have become increasingly serious. In the past few decades, SHS and SLIPS have made progress in anti/de-icing surfaces. However, their durability has been challenged. In recent years, liquid-like surfaces (LLS) prepared by grafting functional polymers have been proven to significantly improve the durability of anti/de-icing surfaces, thus achieving diverse, large-scale and controllable performances. Herein, we review the wetting mechanism and anti/de-icing mechanism of LLS. Then, the factors influencing the anti/de-icing performance of LLS are introduced, including their grafting density, relative molecular weight, branched structure and end groups. Subsequently, taking polymer brushes, polymer networks, storage-functional polymer networks and brush-like polymer networks as four types, the preparation methods and anti/de-icing performance of LLS are elaborated. In addition, in the case of photothermal anti/de-icing coatings, LLS can endow them with excellent transparency to meet the requirements of special application environments. Finally, the challenges and obstacles of LLS in the anti/de-icing field are discussed, and the great potential of LLS in this field in the future is prospected.

Graphical abstract: Toward durable anti/de-icing technologies: liquid-like surfaces with engineered abrasion resistance

Article information

Article type
Review Article
Submitted
24 Apr 2025
Accepted
29 Aug 2025
First published
30 Aug 2025

Mater. Horiz., 2025, Advance Article

Toward durable anti/de-icing technologies: liquid-like surfaces with engineered abrasion resistance

Y. Yan, F. Yang, D. Wu, M. S. Asghar and Z. Guo, Mater. Horiz., 2025, Advance Article , DOI: 10.1039/D5MH00769K

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