Parylene C is a well-known polymer and it has been mainly employed as a protective layer for implantable electronics. In this paper, we propose a new approach to use Parylene C as a versatile template for patterning soft materials potentially applicable as scaffolds in cardiac tissue engineering (TE). Parylene C substrates were anisotropically patterned through standard lithographic process with hydrophilic channels separating raised hydrophobic strips. Ridges and grooves of the template are 10 µm width and depth ranging from 1 to 17 µm. Polydimethylsiloxane (PDMS) and Polyacrylamide (PAm) hydrogel have been chosen as soft polymers to be moulded. Thanks to their chemical and physical properties PDMS and PAm hydrogel mimic the extracellular ...
Active implantable medical devices have been developed for diagnosis, monitoring and treatment of la...
We present an innovative and simple, soft UV lithographic method “FIll-Molding In Capillaries” (FIMI...
Cell patterning is becoming increasingly popular in neuroscience because it allows for the control i...
In vitro cardiac models have been attracted substantial interest in cardiac tissue engineering (TE)....
In cardiac tissue engineering (TE), in vitro models are essential for the study of healthy and patho...
We demonstrate a simple, accurate and versatile method to manipulate Parylene C, a material widely k...
Abstract: The patterned deposition of cells and biomole-cules on surfaces is a potentially useful to...
We recently demonstrated that patterned Parylene C films could be effectively used as a mask for dir...
Polydimethylsiloxane (PDMS) is widely used as a substrate in miniaturized devices, given its suitabi...
Parylene C is a polymer well-known for its inertness and chemical resistance, thus ideal for coverin...
Communication: Surface-patterned 2-hydroxyethyl methacrylate hydrogels were produced by using a meth...
Tissue engineering is an interdisciplinary field to produce effective strategies for repair or repla...
Spatial patterning of biomolecules on a surface with nano- and micrometer precision is important in ...
This chapter outlines the use of soft-photolithography technique to fabricate poly(ethylene glycol) ...
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...
We present an innovative and simple, soft UV lithographic method “FIll-Molding In Capillaries” (FIMI...
Cell patterning is becoming increasingly popular in neuroscience because it allows for the control i...
In vitro cardiac models have been attracted substantial interest in cardiac tissue engineering (TE)....
In cardiac tissue engineering (TE), in vitro models are essential for the study of healthy and patho...
We demonstrate a simple, accurate and versatile method to manipulate Parylene C, a material widely k...
Abstract: The patterned deposition of cells and biomole-cules on surfaces is a potentially useful to...
We recently demonstrated that patterned Parylene C films could be effectively used as a mask for dir...
Polydimethylsiloxane (PDMS) is widely used as a substrate in miniaturized devices, given its suitabi...
Parylene C is a polymer well-known for its inertness and chemical resistance, thus ideal for coverin...
Communication: Surface-patterned 2-hydroxyethyl methacrylate hydrogels were produced by using a meth...
Tissue engineering is an interdisciplinary field to produce effective strategies for repair or repla...
Spatial patterning of biomolecules on a surface with nano- and micrometer precision is important in ...
This chapter outlines the use of soft-photolithography technique to fabricate poly(ethylene glycol) ...
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...
We present an innovative and simple, soft UV lithographic method “FIll-Molding In Capillaries” (FIMI...
Cell patterning is becoming increasingly popular in neuroscience because it allows for the control i...