A bio- and haemocompatible packaging strategy is proposed for an implantable pressure sensor for continuous direct blood pressure monitoring. A commercial sub-millimeter piezoresistive sensor was attached to an alumina substrate and a double coating of PDMS and parylene-C was applied. The packaged device has dimensions of 2.6x3.6x1.8 mm. A surface modification technique using O2 and SF6 plasma has been employed to tune the haemocompatibility of the packaged sensor. By enhancing the intrinsic hydrophobicity of parylene it is possible to increase plasma proteins adsorption and minimize platelets adhesion on the surface. Contact angle measurements were performed on parylene-coated PDMS samples after plasma treatment, using water and whole pig ...
The aim of the present work was to examine the interactions of parylene C with such selected biologi...
Blood compatibility of metallocene polyethylene (mPE) was investigated after modifying the surface u...
Parylene-C is used for various biomedical devices because of its high conformity and biocompatibilit...
AbstractA bio- and haemocompatible packaging strategy is proposed for an implantable pressure sensor...
This paper investigates the effects on the blood compatibility of surface nanostructuring of Parylen...
AbstractThis work presents high performance multilayer coatings for a wide range of applications and...
The current study demonstrates the first surface modification for poly(dimethylsiloxane) (PDMS) micr...
Design of blood compatible surfaces is obligatory to minimize platelet surface interactions and impr...
Heart failure is one of the most prevalent heath issues in todays world. Regardless, if the conditi...
Parylene C surface was modified by the use of oxygen plasma treatment and characterized by microscop...
Biomaterial-based blood clot formation is one of the biggest drawbacks of blood-contacting devices. ...
Blood compatibility of metallocene polyethylene (mPE) was investigated after modifying the surface u...
Medical devices made of polycarbonaturethane (PCU) combine excellent mechanical properties and littl...
Poly(dimethyl siloxane) elastomer, (PDMS) is widely used as a biomaterial. However, PDMS is very hyd...
Over the years, several devices have been created (and the development of many others is currently i...
The aim of the present work was to examine the interactions of parylene C with such selected biologi...
Blood compatibility of metallocene polyethylene (mPE) was investigated after modifying the surface u...
Parylene-C is used for various biomedical devices because of its high conformity and biocompatibilit...
AbstractA bio- and haemocompatible packaging strategy is proposed for an implantable pressure sensor...
This paper investigates the effects on the blood compatibility of surface nanostructuring of Parylen...
AbstractThis work presents high performance multilayer coatings for a wide range of applications and...
The current study demonstrates the first surface modification for poly(dimethylsiloxane) (PDMS) micr...
Design of blood compatible surfaces is obligatory to minimize platelet surface interactions and impr...
Heart failure is one of the most prevalent heath issues in todays world. Regardless, if the conditi...
Parylene C surface was modified by the use of oxygen plasma treatment and characterized by microscop...
Biomaterial-based blood clot formation is one of the biggest drawbacks of blood-contacting devices. ...
Blood compatibility of metallocene polyethylene (mPE) was investigated after modifying the surface u...
Medical devices made of polycarbonaturethane (PCU) combine excellent mechanical properties and littl...
Poly(dimethyl siloxane) elastomer, (PDMS) is widely used as a biomaterial. However, PDMS is very hyd...
Over the years, several devices have been created (and the development of many others is currently i...
The aim of the present work was to examine the interactions of parylene C with such selected biologi...
Blood compatibility of metallocene polyethylene (mPE) was investigated after modifying the surface u...
Parylene-C is used for various biomedical devices because of its high conformity and biocompatibilit...