Parylene C is a polymer well-known for its inertness and chemical resistance, thus ideal for covering and sealing 3D substrates and structures by conformal coating. In the present study, the Parylene C surface is modified by functionalization with pH-responsive poly(methacrylic acid) microgels either over the whole surface, or in a pattern through a poly(dimethylsiloxane) stamp. The surface functionalization consists of two phases: first, an oxygen plasma treatment is used to make the surface superhydrophilic, inducing the formation of polar functional groups and surface topography modifications; then, the plasma-treated samples are functionalized by drop casting a solution of pH-responsive microgels, or in a pattern via microcontact prin...
International audienceA new strategy for the fabrication of micropatterns of surfaceattached hydroge...
Parylene C, an emerging material in microelectromechanical systems, is of particular interest in bio...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...
Parylene is a family of chemically vapour deposited polymer with material properties that are attrac...
Spatial patterning of biomolecules on a surface with nano- and micrometer precision is important in ...
Parylene C is a well-known polymer and it has been mainly employed as a protective layer for implant...
A general method for chemical surface functionalization of parylene C [PC, (para-CH_2-C_6H_3Cl-CH_2-...
Abstract: The patterned deposition of cells and biomole-cules on surfaces is a potentially useful to...
Parylene has attracted significant research attention due to its attractive properties such as good ...
Polydimethylsiloxane (PDMS) is widely used as a substrate in miniaturized devices, given its suitabi...
This paper investigates the effects on the blood compatibility of surface nanostructuring of Parylen...
A novel technique for producing high aspect ratio parylene structures via switching chemistry plasma...
We report on the plasma etching of thick Parylene C (~25 µm) in order to define flexible implantable...
The use of poly-(para-chloro-xylylene) (Parylene C) in microelectromechanical systems and medical de...
Parylene C (poly(monochloro-p-xylylene)) is a member of a unique family of thermoplastic, crystallin...
International audienceA new strategy for the fabrication of micropatterns of surfaceattached hydroge...
Parylene C, an emerging material in microelectromechanical systems, is of particular interest in bio...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...
Parylene is a family of chemically vapour deposited polymer with material properties that are attrac...
Spatial patterning of biomolecules on a surface with nano- and micrometer precision is important in ...
Parylene C is a well-known polymer and it has been mainly employed as a protective layer for implant...
A general method for chemical surface functionalization of parylene C [PC, (para-CH_2-C_6H_3Cl-CH_2-...
Abstract: The patterned deposition of cells and biomole-cules on surfaces is a potentially useful to...
Parylene has attracted significant research attention due to its attractive properties such as good ...
Polydimethylsiloxane (PDMS) is widely used as a substrate in miniaturized devices, given its suitabi...
This paper investigates the effects on the blood compatibility of surface nanostructuring of Parylen...
A novel technique for producing high aspect ratio parylene structures via switching chemistry plasma...
We report on the plasma etching of thick Parylene C (~25 µm) in order to define flexible implantable...
The use of poly-(para-chloro-xylylene) (Parylene C) in microelectromechanical systems and medical de...
Parylene C (poly(monochloro-p-xylylene)) is a member of a unique family of thermoplastic, crystallin...
International audienceA new strategy for the fabrication of micropatterns of surfaceattached hydroge...
Parylene C, an emerging material in microelectromechanical systems, is of particular interest in bio...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...