Superamphiphobic self-assembled monolayer of thiol on the structured Zn surface

Xu, Xiaodong; Zhang, Zhaozhu; Guo, Fang; Yang, Jin; Zhu, Xiaotao; Zhou, Xiaoyan; Xue, Qi‐Kun

doi:10.1016/j.colsurfa.2011.12.046

Cited by 35 publications

(23 citation statements)

References 27 publications

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“…Coating a substrate with polyalkylsilsesquioxane filaments (named as silicone nanofilaments, SNF), first reported in 2004, 50 represents an economical and efficient way to prepare superrepellent surface. 29 With this technique, 9,14,15,19,29,30 a dense SNF layer can be grown on various substrates, including glass, silicon, ceramics, Titanium, Aluminium, cotton fabrics, silk, wood, polyethylene, and so on, by either gas 19,30 or liquid (wet toluene) 9 55 phase deposition of trichloromethylsilane (TCMS) in the presence of a trace amount of water (ca.…”

Section: Functionalization With Nanoparticles (Np)mentioning

confidence: 99%

“…3 Deng and coworkers 46 reported a template-assisted synthesis of nanosilica by using candle soot as a template. The deposition of a soot layer was completed by simply exposure a glass slide to the 50 flame of a paraffin candle, which turned the glass black. SEM revealed that the soot consists of a fractal-like network composed of carbon particles with diameters between 30 nm and 40 nm.…”

Section: Lithographymentioning

confidence: 99%

“…50 Briefly, Zn plates, either those without any pretreatment or those treated for 2 h in a -20 °C refrigerator or in a 10 80 °C oven, could be used as the substrates. The galvanic replacement reactions were carried out by simply immersing the substrates in aqueous AgNO 3 for various time intervals, followed by cleaning with deionized water and drying in air.…”

Section: Galvanic Replacement Reactionmentioning

confidence: 99%

“…A compound pendant droplet was generated from the coaxial nozzle without bias; upon application 45 of a sufficient voltage, a Taylor cone was formed and a liquid jet was ejected that consists of the core material enveloped by the sheath material. Then the polymer jet underwent the same process as in conventional electrospinning: being pulled by the electric field and whipped and stretched by the bending instability, 50 followed by evaporation of the solvent causing the formation of solid-state fibers. Coaxial electrospinning technique allows the resulted fibers combine different characteristics from both the core and the sheath polymers.…”

Section: Spraying a Copper Perfluorooctanoate Suspensionmentioning

confidence: 99%

“…5 Afterwards, it was wellrecognized that the combination of appropriate surface roughness and materials with a low surface energy (mainly fluoro-derived compounds) is a successful way to prepare superoleophobic surfaces. Therefore, a variety of superoleophobic surfaces were 50 reported continuously, 6-10 and the terminology 'superamphiphobic' 6,10 or 'superomniphobic' 7 was used to describe the nature of these surfaces-both superhydrophobic and superoleophobic.…”

Section: Introductionmentioning

confidence: 99%

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Superamphiphobic surfaces

2014

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Superamphiphobicity is an effect where surface roughness and surface chemistry combine to generate surfaces which are both superhydrophobic and superoleophobic, i.e., contact angles (yCA) greater than 1501 along with low contact angle hysteresis (CAH) not only towards probing water but also for low-surface-tension 'oils'. In this review, we summarize the research on superamphiphobic surfaces, including the characterization of superamphiphobicity, different techniques towards the fabrication of surface roughness and surface modification with low-surface-energy materials as well as their functional applications. Superamphiphobicity is an effect where surface roughness and surface chemistry combine to generate 5 surfaces which are both superhydrophobic and superoleophobic, i.e., contact angles ( CA ) greater than 150° along with low contact angle hysteresis (CAH) not only towards probing water but also for lowsurface-tension 'oils'. In this tutorial review, we summarize the research on superamphiphobic surfaces, including the characterization of superamphiphobicity, different techniques towards the fabrication of surface roughness and surface modification with low-surface-energy materials as well as their functional 10 applications.

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Section: Functionalization With Nanoparticles (Np)mentioning

confidence: 99%

Section: Lithographymentioning

confidence: 99%

Section: Galvanic Replacement Reactionmentioning

confidence: 99%

Section: Spraying a Copper Perfluorooctanoate Suspensionmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

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Superamphiphobic surfaces

2014

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Superhydrophobic Surfaces by Electrochemical Processes

Darmanin¹,

Givenchy²,

Amigoni³

et al. 2013

Advanced Materials

411

200

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This review is an exhaustive representation of the electrochemical processes reported in the literature to produce superhydrophobic surfaces. Due to the intensive demand in the elaboration of superhydrophobic materials using low-cost, reproducible and fast methods, the use of strategies based on electrochemical processes have exponentially grown these last five years. These strategies are separated in two parts: the oxidation processes, such as oxidation of metals in solution, the anodization of metals or the electrodeposition of conducting polymers, and the reduction processed such as the electrodeposition of metals or the galvanic deposition. One of the main advantages of the electrochemical processes is the relative easiness to produce various surface morphologies and a precise control of the structures at a micro- or a nanoscale.

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A Superhydrophobic Surface Templated by Protein Self‐Assembly and Emerging Application toward Protein Crystallization

et al. 2015

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A proteinaceous superhydrophobic material for facile protein crystallization is reported. The lysozyme phase transition is rationally manipulated to form a reliable superhydrophobic coating on virtually arbitrary material surfaces with good thermostability and mechanical robustness. Such a surface exhibits a fascinating capability to drive protein crystallization, and the protein crystal array can be facilitated in a large area at an ultralow protein concentration.

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Superamphiphobic self-assembled monolayer of thiol on the structured Zn surface

Cited by 35 publications

References 27 publications

Superamphiphobic surfaces

Superamphiphobic surfaces

Superhydrophobic Surfaces by Electrochemical Processes

A Superhydrophobic Surface Templated by Protein Self‐Assembly and Emerging Application toward Protein Crystallization

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