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  4. Parylene C Based Adhesive Bonding on 6" and 8" Wafer Level for the Realization of Highly Reliable and Fully Biocompatible Microsystems
 
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2020
Conference Paper
Title

Parylene C Based Adhesive Bonding on 6" and 8" Wafer Level for the Realization of Highly Reliable and Fully Biocompatible Microsystems

Title Supplement
(Invited)
Abstract
The ongoing miniaturization and implementation of new functionalities into micro-electro-mechanical systems (MEMS) demand the development and application of new wafer bonding and encapsulation technologies with a high performance. Requirements are low process temperatures, high mechanical strengths of the bonded interface, as well as the applicability on large wafer sizes. Within the presented study, the polymer Parylene C was used as an adhesive for the bonding of 6" and 8" wafers. Doing so, the material combinations of the wafers, the Parylene thicknesses and geometries as well as the bonding parameters were varied. The properties of the wafer compounds were characterized with various methods, including mechanical tests, infrared imaging, cross-sections, hermeticity tests and the investigation of the thermal reliability. Using the Parylene C bonding process, tensile strengths of up to 35 MPa, and shear strengths of up to 80 MPa were realized. The determined helium leakage rate was lower than 1 bold dot 10-7 mbar bold dot l/s and the thermal reliability was verified to be excellent.
Author(s)
Selbmann, Franz  
Baum, Mario  
Meinecke, Christoph Robert
Wiemer, Maik  
Otto, Thomas  
Joseph, Y.
Mainwork
Semiconductor Wafer Bonding: Science, Technology and Applications 16  
Conference
Symposium "Semiconductor Wafer Bonding - Science, Technology and Applications" 2020  
Pacific Rim Meeting on Electrochemical and Solid-State Science (PRiME) 2020  
DOI
10.1149/09804.0055ecst
Language
English
Fraunhofer-Institut für Elektronische Nanosysteme ENAS  
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