Abstract A reliable Cu–Cu bonding joint was achieved by using the highly sinterable Cu nanoparticle paste. Pure copper nanoparticles used in the preparation of nanoparticle paste were synthesized through simple routes, with an average size of 60.5 nm. Under an Ar-H2 gas mixture atmosphere, the Cu nanoparticle paste exhibited large areas of fusion after sintering at 300 °C and reached a low electrical resistivity of 11.2 μΩ cm. With the same temperature as sintering, a compact Cu–Cu bonding joint was achieved under the pressure of 1.08 MPa and the shear strength of the joint could achieve 31.88 MPa. The shear strength and the elemental composition of the bonded joint were almost unchanged after aging test, which proves that the Cu–Cu bonding...
In this work, mechanical properties of Cu-to-Cu joint samples prepared by low temperature sintering ...
High temperature power electronics based on wide-bandgap semiconductors have prominent applications,...
Harsh environment electronics need to maintain their functionality while working at conditions such ...
Highly conductive Cu–Cu interconnections of SiC die with Ti/Ni/Cu metallization and direct bonded co...
Copper nanoparticles (Cu NPs) fabricated by physical vapor deposition (PVD) were introduced in Cu-Cu...
The combination of excellent electrical conductivity and low cost makes copper a good selection for ...
In this study, the feasibility of low-cost Cu-sintering technology for power electronics packaging a...
Nowadays, the demand for enhanced performance and reliability in micro and nano systems is growing, ...
There is a high demand for the implementation of metallic nanoparticle (NP) sintering technology for...
Three-dimensional integrated circuits (3D-IC) technology was introduced to solve the interconnect de...
To support the harsh environment of power electronics, such as high operating temperature, and high ...
We explore a methodology for patterned copper nanoparticle paste for 3D interconnect applications in...
One of the key methods to form interconnects between electrical packages and devices is by thermocom...
Electrical interconnections are paramount components of microelectronic packages, being the link bet...
Power electronics demand miniaturization, integration, higher electrical and ther-mal conductivities...
In this work, mechanical properties of Cu-to-Cu joint samples prepared by low temperature sintering ...
High temperature power electronics based on wide-bandgap semiconductors have prominent applications,...
Harsh environment electronics need to maintain their functionality while working at conditions such ...
Highly conductive Cu–Cu interconnections of SiC die with Ti/Ni/Cu metallization and direct bonded co...
Copper nanoparticles (Cu NPs) fabricated by physical vapor deposition (PVD) were introduced in Cu-Cu...
The combination of excellent electrical conductivity and low cost makes copper a good selection for ...
In this study, the feasibility of low-cost Cu-sintering technology for power electronics packaging a...
Nowadays, the demand for enhanced performance and reliability in micro and nano systems is growing, ...
There is a high demand for the implementation of metallic nanoparticle (NP) sintering technology for...
Three-dimensional integrated circuits (3D-IC) technology was introduced to solve the interconnect de...
To support the harsh environment of power electronics, such as high operating temperature, and high ...
We explore a methodology for patterned copper nanoparticle paste for 3D interconnect applications in...
One of the key methods to form interconnects between electrical packages and devices is by thermocom...
Electrical interconnections are paramount components of microelectronic packages, being the link bet...
Power electronics demand miniaturization, integration, higher electrical and ther-mal conductivities...
In this work, mechanical properties of Cu-to-Cu joint samples prepared by low temperature sintering ...
High temperature power electronics based on wide-bandgap semiconductors have prominent applications,...
Harsh environment electronics need to maintain their functionality while working at conditions such ...