Parylene-C is used for various biomedical devices because of its high conformity and biocompatibility. However, delamination could occur because of low adhesion between Parylene-C and other materials. For this experiment 4-inch Si-wafers are used. Parylene is deposited by chemical vapour deposition (CVD). Silane A-174 as adhesion promoter is added between Parylene-Parylene layers. The samples are soaked at different duration 1 h, 24 h and 120 h in PBS solution at 37 °C. A peel test is further performed to investigate the adhesion properties of the samples
The crystalline–amorphous parylene C structure was fabricated by Chemical Vapour Deposited (CVD) and...
AbstractA bio- and haemocompatible packaging strategy is proposed for an implantable pressure sensor...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...
Parylene-C has been extensively used in biomedical devices as a conformal and biocompatible coating....
Delamination of encapsulation materials (here the polymer Parylene-C) is one of the biggest failure ...
Parylene-C has been used as a substrate and encapsulation material for many implantable medical devi...
A procedure is described for using argon and oxygen plasmas to promote adhesion of parylene coatings...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
This paper investigates the effects on the blood compatibility of surface nanostructuring of Parylen...
A new technique of using “in-situ heating” to enhance adhesion for parylene-on-parylene deposition i...
AbstractThis work presents high performance multilayer coatings for a wide range of applications and...
Neural interface devices have been developed for neural science and neuroprosthetics applications to...
The paper reports a investigation on chemical composition and morphology of parylene C samples modi...
Delamination of thin film polymeric coatings from metallization layers is a common cause of failure ...
The crystalline–amorphous parylene C structure was fabricated by Chemical Vapour Deposited (CVD) and...
AbstractA bio- and haemocompatible packaging strategy is proposed for an implantable pressure sensor...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...
Parylene-C has been extensively used in biomedical devices as a conformal and biocompatible coating....
Delamination of encapsulation materials (here the polymer Parylene-C) is one of the biggest failure ...
Parylene-C has been used as a substrate and encapsulation material for many implantable medical devi...
A procedure is described for using argon and oxygen plasmas to promote adhesion of parylene coatings...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
This paper investigates the effects on the blood compatibility of surface nanostructuring of Parylen...
A new technique of using “in-situ heating” to enhance adhesion for parylene-on-parylene deposition i...
AbstractThis work presents high performance multilayer coatings for a wide range of applications and...
Neural interface devices have been developed for neural science and neuroprosthetics applications to...
The paper reports a investigation on chemical composition and morphology of parylene C samples modi...
Delamination of thin film polymeric coatings from metallization layers is a common cause of failure ...
The crystalline–amorphous parylene C structure was fabricated by Chemical Vapour Deposited (CVD) and...
AbstractA bio- and haemocompatible packaging strategy is proposed for an implantable pressure sensor...
2019-04-26Parylene provides many advantages as a material for thin-film implantable devices, however...