A novel Cu reflow seed process which utilizes physical vapor deposition (PVD) technology components has been demonstrated for nanoscale dual damascene interconnects. Prior to Cu electroplating, small features can be partially filled with Cu by this newly developed Cu reflow seed process. It is confirmed that both suitable seed coverage and appropriate reflow temperature are required for achieving ideal reflow property. Bias conditions during Cu PVD dominate seed coverage in features, and processes at moderate bias are demonstrated to provide optimum bottom and sidewall coverage, while limiting field coverage. Overall Cu fill performance was enhanced significantly and more than a 60 % improvement in via-chain yield is obtained by Cu reflow s...
Interconnects are significant elements in integrated circuits (ICs), as they connect individual comp...
Chemical vapor deposition (CVD) of copper and manganese can produce interconnects scaled down to bel...
A novel CVD copper process is described using two new copper CVD precursors, KI3 and KI5, for the fa...
The electrodeposited Cu film morphology on thin physical vapor deposited (PVD) Cu seed for various c...
email Contact author Open PDF With ultra-large-scale integration progress, efficient copper metalliz...
Cu gap-fill is enhanced by replacing the conventional Ta liner with a Co liner in a 22 nm width inte...
As a superior substituent for the chemical-vapor deposition and physical-vapor deposition ~PVD! Cu ...
The continuous miniaturization of copper chip wiring, and consequently shrinkage of line width and v...
The copper interconnect technology is constrained by the non-uniformity of the current distribution ...
The deposition of Cu seed layers for electrochemical Cu deposition (ECD) via atomic layer deposition...
The copper interconnect technology is constrained by the significant current distribution due to the...
Cu has replaced Al as the main interconnection material in ultra-large integrated circuits, reducing...
Because of concerns about its reliability and its effects on the speed of electronic devices, seriou...
Electrochemical processes are being used for on-chip metallization mainly to fabricate Cu conductors...
[[abstract]]An electrochemical deposition process for copper (Cu) metallization has been developed a...
Interconnects are significant elements in integrated circuits (ICs), as they connect individual comp...
Chemical vapor deposition (CVD) of copper and manganese can produce interconnects scaled down to bel...
A novel CVD copper process is described using two new copper CVD precursors, KI3 and KI5, for the fa...
The electrodeposited Cu film morphology on thin physical vapor deposited (PVD) Cu seed for various c...
email Contact author Open PDF With ultra-large-scale integration progress, efficient copper metalliz...
Cu gap-fill is enhanced by replacing the conventional Ta liner with a Co liner in a 22 nm width inte...
As a superior substituent for the chemical-vapor deposition and physical-vapor deposition ~PVD! Cu ...
The continuous miniaturization of copper chip wiring, and consequently shrinkage of line width and v...
The copper interconnect technology is constrained by the non-uniformity of the current distribution ...
The deposition of Cu seed layers for electrochemical Cu deposition (ECD) via atomic layer deposition...
The copper interconnect technology is constrained by the significant current distribution due to the...
Cu has replaced Al as the main interconnection material in ultra-large integrated circuits, reducing...
Because of concerns about its reliability and its effects on the speed of electronic devices, seriou...
Electrochemical processes are being used for on-chip metallization mainly to fabricate Cu conductors...
[[abstract]]An electrochemical deposition process for copper (Cu) metallization has been developed a...
Interconnects are significant elements in integrated circuits (ICs), as they connect individual comp...
Chemical vapor deposition (CVD) of copper and manganese can produce interconnects scaled down to bel...
A novel CVD copper process is described using two new copper CVD precursors, KI3 and KI5, for the fa...