Parylene is a family of chemically vapour deposited polymer with material properties that are attractive for biomedicine and nanobiotechnology. Chemically inert parylene “peel-off” stencils have been demonstrated for micropatterning biomolecular arrays with high uniformity, precise spatial control down to nanoscale resolution. Such micropatterned surfaces are beneficial in engineering biosensors and biological microenvironments. A variety of substituted precursors enables direct coating of functionalised parylenes onto biomedical implants and microfluidics, providing a convenient method for designing biocompatible and bioactive surfaces. This article will review the emerging role and applications of parylene as a biomaterial for surface che...
We report on the plasma etching of thick Parylene C (~25 µm) in order to define flexible implantable...
Active implantable medical devices have been developed for diagnosis, monitoring and treatment of la...
Biomedical microsystems attain to contact with environments like blood, ephitHelium and saline solut...
Spatial patterning of biomolecules on a surface with nano- and micrometer precision is important in ...
Parylene C is a polymer well-known for its inertness and chemical resistance, thus ideal for coverin...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...
This paper describes parylene as an emerging bioMEMS material. Parylene has the unique feature of ro...
Abstract: The patterned deposition of cells and biomole-cules on surfaces is a potentially useful to...
A novel technique for producing high aspect ratio parylene structures via switching chemistry plasma...
Parylene has attracted significant research attention due to its attractive properties such as good ...
Parylene C is a promising material for constructing flexible, biocompatible and corrosion-resistant ...
Cell patterning is becoming increasingly popular in neuroscience because it allows for the control i...
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...
Parylene C is a well-known polymer and it has been mainly employed as a protective layer for implant...
We report on the plasma etching of thick Parylene C (~25 µm) in order to define flexible implantable...
Active implantable medical devices have been developed for diagnosis, monitoring and treatment of la...
Biomedical microsystems attain to contact with environments like blood, ephitHelium and saline solut...
Spatial patterning of biomolecules on a surface with nano- and micrometer precision is important in ...
Parylene C is a polymer well-known for its inertness and chemical resistance, thus ideal for coverin...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...
This paper describes parylene as an emerging bioMEMS material. Parylene has the unique feature of ro...
Abstract: The patterned deposition of cells and biomole-cules on surfaces is a potentially useful to...
A novel technique for producing high aspect ratio parylene structures via switching chemistry plasma...
Parylene has attracted significant research attention due to its attractive properties such as good ...
Parylene C is a promising material for constructing flexible, biocompatible and corrosion-resistant ...
Cell patterning is becoming increasingly popular in neuroscience because it allows for the control i...
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...
Parylene C is a well-known polymer and it has been mainly employed as a protective layer for implant...
We report on the plasma etching of thick Parylene C (~25 µm) in order to define flexible implantable...
Active implantable medical devices have been developed for diagnosis, monitoring and treatment of la...
Biomedical microsystems attain to contact with environments like blood, ephitHelium and saline solut...