In this paper, a high performance wafer-level vacuum packaging technology based on GSG triple-layer sealing structure for encapsulating large mass inertial MEMS devices fabricated by silicon-on-glass bulk micromachining technology is presented. Roughness controlling strategy of bonding surfaces was proposed and described in detail. Silicon substrate was thinned and polished by CMP after the first bonding with the glass substrate and was then bonded with the glass micro-cap. Zr thin film was embedded into the concave of the micro-cap by a shadow-mask technique. The glass substrate was thinned to about 100 mu m, wet etched through and metalized for realizing vertical feedthrough. During the fabrication, all patterning processes were operated ...
This paper presents a new method for wafer level vacuum packaging of MEMS devices using anodic bondi...
Results of wafer level packaging for micro-electro-mechanical systems based on low temperature melti...
In this paper the authors report about the six inch wafer level vacuum packaging of electro-statical...
IEEEThis paper introduces a novel, inherently simple, and all-silicon wafer-level fabrication and he...
A wafer-level vacuum package with silicon bumps and electrical feedthroughs on the cap wafer is deve...
Many MEMS (Micro Electro-Mechanic Systems) parts have to meet the requirements for vacuum packaging....
This thesis describes the development of wafer-level, low temperature thin film packages. Two packag...
A novel vacuum (< 20 mTorr) encapsulation technology for the packaging of micro-electromechanical sy...
Silicon (Si) photonic micro-electro-mechanical systems (MEMS), with its low-power phase shifters and...
This paper presents a novel, inherently simple and low-cost fabrication and hermetic packaging metho...
Packaging of MEMS is an important expense factor within the production costs and, to ensure mass pro...
Results of wafer level packaging for micro-electro-mechanical systems based on low temperature melti...
Localized heating and bonding techniques have been developed for hermetic and vacuum packaging of ME...
AbstractThis paper presents a new method for wafer level vacuum packaging of MEMS devices using anod...
Vacuum and hermetic packaging is a critical requirement for optimal performance of many micro-electr...
This paper presents a new method for wafer level vacuum packaging of MEMS devices using anodic bondi...
Results of wafer level packaging for micro-electro-mechanical systems based on low temperature melti...
In this paper the authors report about the six inch wafer level vacuum packaging of electro-statical...
IEEEThis paper introduces a novel, inherently simple, and all-silicon wafer-level fabrication and he...
A wafer-level vacuum package with silicon bumps and electrical feedthroughs on the cap wafer is deve...
Many MEMS (Micro Electro-Mechanic Systems) parts have to meet the requirements for vacuum packaging....
This thesis describes the development of wafer-level, low temperature thin film packages. Two packag...
A novel vacuum (< 20 mTorr) encapsulation technology for the packaging of micro-electromechanical sy...
Silicon (Si) photonic micro-electro-mechanical systems (MEMS), with its low-power phase shifters and...
This paper presents a novel, inherently simple and low-cost fabrication and hermetic packaging metho...
Packaging of MEMS is an important expense factor within the production costs and, to ensure mass pro...
Results of wafer level packaging for micro-electro-mechanical systems based on low temperature melti...
Localized heating and bonding techniques have been developed for hermetic and vacuum packaging of ME...
AbstractThis paper presents a new method for wafer level vacuum packaging of MEMS devices using anod...
Vacuum and hermetic packaging is a critical requirement for optimal performance of many micro-electr...
This paper presents a new method for wafer level vacuum packaging of MEMS devices using anodic bondi...
Results of wafer level packaging for micro-electro-mechanical systems based on low temperature melti...
In this paper the authors report about the six inch wafer level vacuum packaging of electro-statical...