A novel nano-silver paste with characteristics of sintering at low temperature and operating at high temperature is one of the most promising interconnect materials in the semiconductor industry. This study focuses on the shear strength of sintered multi-scale silver paste synthesized by nano-silver particles, micro-silver particles and submicron silicon carbide particles coated with Ag (SCA). The silver paste was sintered at 250 \ub0C without pressure. The shear strength reaches 9.22 MPa, with 64 wt.% nano-silver particles, 16.5 wt.% micro-silver particles and 1.5 wt.% SCA, respectively. With this, it shows great potential for high power electronics interconnect and cooing applications
SiC microparticles with various weight ratios (0.0, 0.5, 1.0 and 1.5 wt%) are incorporated into sint...
Ag nanoparticle paste is prepared based on the polyol method and subsequent concentration by centrif...
In this paper, the microstructure of Ag nano paste joint was investigated in pressure-less sintering...
\ua9 2019, Emerald Publishing Limited. Purpose: This study aims to develop a bimodal nano-silver pas...
Nanoscale silver paste has a good application prospect in heat dissipation of high-power chips due t...
Nanosilver paste with a low sintering temperature is a high-demand interconnection material for elec...
This paper deals with analysis, testing, and process optimization of new nanoparticle silvering past...
Recent years, the sintered silver paste was introduced and further developed for power electronics p...
Nanosilver paste with high operation temperature and low sintering temperature has attracted more an...
Nano-silver paste has been considered to be one of the most promising materials for interconnects of...
Silver nanoparticle pastes are promising materials for high temperature interconnection particularly...
For decades soldering has been the technology of choice in die bonding. However, due to worldwide he...
Power electronic systems are needed in diverse areas such as electricity transmission or electrical ...
High power electronics with wide band gap semiconductors are becoming the most promising devices in ...
Nano-silver paste with low sintering temperature and high operation temperature was introduced to th...
SiC microparticles with various weight ratios (0.0, 0.5, 1.0 and 1.5 wt%) are incorporated into sint...
Ag nanoparticle paste is prepared based on the polyol method and subsequent concentration by centrif...
In this paper, the microstructure of Ag nano paste joint was investigated in pressure-less sintering...
\ua9 2019, Emerald Publishing Limited. Purpose: This study aims to develop a bimodal nano-silver pas...
Nanoscale silver paste has a good application prospect in heat dissipation of high-power chips due t...
Nanosilver paste with a low sintering temperature is a high-demand interconnection material for elec...
This paper deals with analysis, testing, and process optimization of new nanoparticle silvering past...
Recent years, the sintered silver paste was introduced and further developed for power electronics p...
Nanosilver paste with high operation temperature and low sintering temperature has attracted more an...
Nano-silver paste has been considered to be one of the most promising materials for interconnects of...
Silver nanoparticle pastes are promising materials for high temperature interconnection particularly...
For decades soldering has been the technology of choice in die bonding. However, due to worldwide he...
Power electronic systems are needed in diverse areas such as electricity transmission or electrical ...
High power electronics with wide band gap semiconductors are becoming the most promising devices in ...
Nano-silver paste with low sintering temperature and high operation temperature was introduced to th...
SiC microparticles with various weight ratios (0.0, 0.5, 1.0 and 1.5 wt%) are incorporated into sint...
Ag nanoparticle paste is prepared based on the polyol method and subsequent concentration by centrif...
In this paper, the microstructure of Ag nano paste joint was investigated in pressure-less sintering...