AbstractThis paper presents a wafer-level temporary packaging technique utilizing a chemical vapor deposited (CVD) poly- (p-xylylene) polymer Parylene film, and oxygen plasma etching. As a test case, released, unpackaged accelerometers made in a SiGe MEMS above IC technology were coated with two different types of Parylene, Parylene N and Parylene C respectively, as a dicing protection. Oxygen plasma is used to etch the Parylene and to release the freestanding structures after dicing. The final releasing results are compared, and Parylene N turns out to be the best material for temporary packaging. The devices are electrostatically characterized after the Parylene coating. The results demonstrate the feasibility of using Parylene as a tempo...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
This paper reports a novel and reliable process to prepare ultra-thin parylene film based on a princ...
Parylene-C is used for various biomedical devices because of its high conformity and biocompatibilit...
This paper presents a wafer-level temporary packaging technique utilizing a chemical vapor deposited...
AbstractThis paper presents a wafer-level temporary packaging technique utilizing a chemical vapor d...
This paper reports a wafer-level attachment method using parylene as an interlayer material for inte...
Parylene C is a promising material for constructing flexible, biocompatible and corrosion-resistant ...
A novel technique for producing high aspect ratio parylene structures via switching chemistry plasma...
Abstract—This paper presents an embedded chip integra-tion technology that incorporates silicon hous...
Trench sidewall passivation is a key step in the SCREAM (single crystal reactive etching and metalli...
Parylene C has been investigated for use as a sacrificial material in microfabrication. Although Par...
This paper describes parylene as an emerging bioMEMS material. Parylene has the unique feature of ro...
As dictated by the International Technology Roadmap for Semiconductors, there is an immediate need t...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
Parylene C, an emerging material in microelectromechanical systems, is of particular interest in bio...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
This paper reports a novel and reliable process to prepare ultra-thin parylene film based on a princ...
Parylene-C is used for various biomedical devices because of its high conformity and biocompatibilit...
This paper presents a wafer-level temporary packaging technique utilizing a chemical vapor deposited...
AbstractThis paper presents a wafer-level temporary packaging technique utilizing a chemical vapor d...
This paper reports a wafer-level attachment method using parylene as an interlayer material for inte...
Parylene C is a promising material for constructing flexible, biocompatible and corrosion-resistant ...
A novel technique for producing high aspect ratio parylene structures via switching chemistry plasma...
Abstract—This paper presents an embedded chip integra-tion technology that incorporates silicon hous...
Trench sidewall passivation is a key step in the SCREAM (single crystal reactive etching and metalli...
Parylene C has been investigated for use as a sacrificial material in microfabrication. Although Par...
This paper describes parylene as an emerging bioMEMS material. Parylene has the unique feature of ro...
As dictated by the International Technology Roadmap for Semiconductors, there is an immediate need t...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
Parylene C, an emerging material in microelectromechanical systems, is of particular interest in bio...
Parylenes are used for a wide range of applications in microelectromechanical systems (MEMS) devices...
This paper reports a novel and reliable process to prepare ultra-thin parylene film based on a princ...
Parylene-C is used for various biomedical devices because of its high conformity and biocompatibilit...