Hermetic sealing of micro-electro mechanical systems (MEMS) sensors for down-hole application requires high-quality void-free bonds, with metallic hermetic sealing being widely used for this purpose. As most of the MEMS sensors cannot withstand high temperatures, transient liquid phase (TLP) bonding is promising for metallic sealing applications, since the re-melting temperature of the bond is much higher than the bonding temperature. In this paper, major issues involving TLP bonding, including non-uniform diffusion kinetics across the interface and the formation of intermetallic compounds prior to bonding for fast reactive metallic systems like Au-In, have been addressed by using diffusion barriers. The performance of various diffusion bar...
Complex engineering systems ranging from automobile engines to geothermal wells require specialized ...
To develop new electronic packaging techniques for harsh environments, the microstructure and associ...
This paper presents a new method for wafer-level hermetic encapsulation of MEMS devices using low-te...
In this study, 100 μm sealing width of both Al-Ge eutectic bonds and Pt-In Transient Liquid Phase bo...
IEEEA novel solid-liquid inter-diffusion (SLID) bonding process is developed allowing to use thin la...
Hermetic packaging is often an essential requirement to enable proper functionality throughout the d...
Wafer level hermetic encapsulation of MEMS is crucial from both commercial and scientific...
This paper presents the development of a low temperature transient liquid phase bonding process for ...
Solid-Liquid InterDiffusion (SLID) bonding is particularly suited for high-temperature applications,...
In this study, the focus was on the design for reliable wafer level hermetic Sn-Au based interconnec...
Transient liquid phase (TLP) die-attach bonding is an attractive technique for high-temperature semi...
With growing demand in electronic system for operating in harsh conditions makes the idea of researc...
This paper presents the fabrication of wafer-level hermetic encapsulation for MEMS devices using low...
In this paper, wafer-level AuSn/Pt solid-liquid interdiffusion bonding for hermetic encapsulation of...
Solid-liquid interdiffusion (SLID) bonding for microelectronics and microsystems is a bonding techni...
Complex engineering systems ranging from automobile engines to geothermal wells require specialized ...
To develop new electronic packaging techniques for harsh environments, the microstructure and associ...
This paper presents a new method for wafer-level hermetic encapsulation of MEMS devices using low-te...
In this study, 100 μm sealing width of both Al-Ge eutectic bonds and Pt-In Transient Liquid Phase bo...
IEEEA novel solid-liquid inter-diffusion (SLID) bonding process is developed allowing to use thin la...
Hermetic packaging is often an essential requirement to enable proper functionality throughout the d...
Wafer level hermetic encapsulation of MEMS is crucial from both commercial and scientific...
This paper presents the development of a low temperature transient liquid phase bonding process for ...
Solid-Liquid InterDiffusion (SLID) bonding is particularly suited for high-temperature applications,...
In this study, the focus was on the design for reliable wafer level hermetic Sn-Au based interconnec...
Transient liquid phase (TLP) die-attach bonding is an attractive technique for high-temperature semi...
With growing demand in electronic system for operating in harsh conditions makes the idea of researc...
This paper presents the fabrication of wafer-level hermetic encapsulation for MEMS devices using low...
In this paper, wafer-level AuSn/Pt solid-liquid interdiffusion bonding for hermetic encapsulation of...
Solid-liquid interdiffusion (SLID) bonding for microelectronics and microsystems is a bonding techni...
Complex engineering systems ranging from automobile engines to geothermal wells require specialized ...
To develop new electronic packaging techniques for harsh environments, the microstructure and associ...
This paper presents a new method for wafer-level hermetic encapsulation of MEMS devices using low-te...