Robust Superhydrophobicity(强大的超疏水性)研究综述
Robust Superhydrophobicity 强大的超疏水性 - Benefitting from the robust superhydrophobicity, the SiC/SiO2 coating on the copper mesh can significantly delay the freezing time of the droplets and reduce the ice adhesion strength. [1] Robust superhydrophobicity is a must to meet the rigorous industrial requirements and standards for commercial products. [2] In addition, the microcilia decorated surface can preserve the robust superhydrophobicity after various stability tests, for example, normal pressing, chemical corrosion, and mechanical abrasion, exhibiting the possibility toward the long-term and real applications. [3] It is proposed that the robust superhydrophobicity may be attributable to the formation of unique hierarchical micro-/nanostructures and a nonpolar carbon layer on the surface. [4] Herein, PDMS-based micro/nano-textured flexible surfaces with robust superhydrophobicity were fabricated by an effective and environmentally friendly method. [5] 9%), robust superhydrophobicity and superoleophilicity (θwater = 160. [6] When these SOMs are used as fillers for non-silicon and non-fluorine common waterborne resin systems such as waterborne polyurethane, the obtained coating surfaces demonstrate excellent and robust superhydrophobicity. [7] The robust superhydrophobicity can be obtained by the stable binding of PCL-b-PTFOA microspheres onto the fibers, with the CA reaching 155. [8] The bifunctional energy harvesting ability, together with good transparency, high stretchability, and robust superhydrophobicity make the TENG a promising sustainable energy source for next-generation electronic devices. [9] Spray-deposition of the coating solution onto various substrates (glass, fabric, mesh, paper and wood) followed by UV initiated polymerization created the hierarchical micro/nano-structured hybrid coatings with robust superhydrophobicity and superoleophilicity. [10] In this paper, we first fabricate a 3D porous FZCF (FAS-modified ZnO-grown copper foam) with robust superhydrophobicity in air and superoleophilicity under water and the repeatable superwettability, and then mainly explore and analyze its corrosion resistance. [11]得益于强大的超疏水性，铜网上的 SiC/SiO2 涂层可以显着延迟液滴的冻结时间并降低冰的粘附强度。 [1] 强大的超疏水性是满足商业产品严格的工业要求和标准的必要条件。 [2] 此外，微纤毛装饰表面在经过正常压制、化学腐蚀和机械磨损等各种稳定性测试后仍能保持强大的超疏水性，展现出长期和实际应用的可能性。 [3] nan [4] nan [5] nan [6] nan [7] nan [8] nan [9] nan [10] nan [11]
water contact angle
2% and robust superhydrophobicity (water contact angle of 152°), thus exhibiting excellent adsorption capacity in oil-water separation under different extreme environments. [1] The as-synthesized resin coatings possess strong bonding strength with metal substrate, and the surface hierarchical morphologies (10 wt% SiO2 nanoparticles) induce the robust superhydrophobicity with a high water contact angle of 152°. [2] The obtained composite film features unexpected but surprising hierarchical micro/nanoscopic structures as well as robust superhydrophobicity with water contact angle around 170° and sliding angle below 4°. [3]2%和强大的超疏水性（水接触角为152°），因此在不同极端环境下的油水分离中表现出优异的吸附能力。 [1] nan [2] nan [3]
Exhibited Robust Superhydrophobicity
Because of these strengthened mutual interfacial interactions, these ‘corn-like’ structures are thereby aggregated tightly together to form affluent and vigorous hierarchical nestle-like structures in SHC which not only exhibited robust superhydrophobicity but also provided sufficient capillary length to stabilize oil. [1] The composite material also exhibited robust superhydrophobicity in corrosive liquids and hot water. [2] When the sisal cellulose content of 200% (sisal: PM cellulose mass ratio), the SHPC-200 aerogel exhibited robust superhydrophobicity (WCA = 158°) and large specific surface areas (475. [3]由于这些加强的相互界面相互作用，这些“玉米状”结构因此紧密聚集在一起，在 SHC 中形成丰富而有力的分层巢状结构，不仅表现出强大的超疏水性，而且还提供了足够的毛细管长度来稳定油。 [1] nan [2] nan [3]
Endow Robust Superhydrophobicity
Hydrophobic agent (polydimethylsiloxane, PDMS), and crosslinking monomer (γ-methacryloxypropyl trimethoxysilane, MAPS) form new covalent bonds between TiO2 particle layer and wood substrate after EB radiation，which endows robust superhydrophobicity and remarkable UV resistance on the wood surface. [1] Hydrophobic agent (polydimethylsiloxane, PDMS), and crosslinking monomer (γ-methacryloxypropyl trimethoxysilane, MAPS) form new covalent bonds between TiO2 particle layer and wood substrate after EB radiation, which endows robust superhydrophobicity and remarkable UV resistance on the wood surface. [2]疏水剂（聚二甲基硅氧烷，PDMS）和交联单体（γ-甲基丙烯酰氧基丙基三甲氧基硅烷，MAPS）在 EB 辐射后在 TiO2 颗粒层和木材基材之间形成新的共价键，赋予木材表面强大的超疏水性和显着的抗紫外线性能。 [1] 疏水剂（聚二甲基硅氧烷，PDMS）和交联单体（γ-甲基丙烯酰氧基丙基三甲氧基硅烷，MAPS）在 EB 辐射后在 TiO2 颗粒层和木材基材之间形成新的共价键，赋予木材表面强大的超疏水性和显着的抗紫外线性。 [2]