The wetting behavior of water droplets was studied on tunable nanostructured polystyrene (PS) surfaces fabricated by temperature-induced capillary template wetting. The surface morphology of PS varied with the annealing temperature. Contact angle (CA) measurements showed that the wettability of polystyrene surfaces could be tuned from hydrophobic (CA = 104°) to superhydrophobic (CA = 161°) by rendering different morphologies, which could be explained by two distinct wetting modes, i.e., the Wenzel and Cassie–Baxter wetting state. Meanwhile, the critical annealing temperature inducing wetting transition between the Wenzel state and Cassie–Baxter state was obtained. This approach could be easily extended to produce superhy...
A simple method for fabricating micro/nanoscale hierarchical structures is presented using a two-ste...
This paper reports an efficient strategy to fabricate micro/nanopatterns on the surfaces of polymers...
Lotus flowers, rose petals, some plant leaves and insects have a naturally super-hydrophobic surface...
We present wetting transition of a water droplet on microstructured polymer surfaces using materials...
The surface hydrophobicity of polystyrene-nanoparticle nanocomposites has been investigated as a fu...
Micro- and nanoscale combined hierarchical polymer structures were fabricated by UV-assisted capilla...
This work aims at developing polymer surfaces with enhanced hydrophobicity by controlling both the s...
Controlling the wettability of solid materials is a key issue in surface engineering. The objective ...
Abstract Superhydrophobic polymers are particularly attractive materials, as they combine low cost, ...
In spite of the reported temperature dependent tunability in wettability of poly(<i>N</i>-isopropyl...
Various methods for modification of polymer surfaces were studied with the objective of controlling ...
International audienceThis work aims at developing polymer surfaces with enhanced hydrophobic behavi...
A simple method for the fabrication of tunable surfaces with wettability that can he manipulated rap...
Multifunctional surfaces with reversible wetting characteristics are fabricated utilizing end-anchor...
Understanding the geometric parameters of hierarchical superhydrophobic surfaces and their impact on...
A simple method for fabricating micro/nanoscale hierarchical structures is presented using a two-ste...
This paper reports an efficient strategy to fabricate micro/nanopatterns on the surfaces of polymers...
Lotus flowers, rose petals, some plant leaves and insects have a naturally super-hydrophobic surface...
We present wetting transition of a water droplet on microstructured polymer surfaces using materials...
The surface hydrophobicity of polystyrene-nanoparticle nanocomposites has been investigated as a fu...
Micro- and nanoscale combined hierarchical polymer structures were fabricated by UV-assisted capilla...
This work aims at developing polymer surfaces with enhanced hydrophobicity by controlling both the s...
Controlling the wettability of solid materials is a key issue in surface engineering. The objective ...
Abstract Superhydrophobic polymers are particularly attractive materials, as they combine low cost, ...
In spite of the reported temperature dependent tunability in wettability of poly(<i>N</i>-isopropyl...
Various methods for modification of polymer surfaces were studied with the objective of controlling ...
International audienceThis work aims at developing polymer surfaces with enhanced hydrophobic behavi...
A simple method for the fabrication of tunable surfaces with wettability that can he manipulated rap...
Multifunctional surfaces with reversible wetting characteristics are fabricated utilizing end-anchor...
Understanding the geometric parameters of hierarchical superhydrophobic surfaces and their impact on...
A simple method for fabricating micro/nanoscale hierarchical structures is presented using a two-ste...
This paper reports an efficient strategy to fabricate micro/nanopatterns on the surfaces of polymers...
Lotus flowers, rose petals, some plant leaves and insects have a naturally super-hydrophobic surface...