The formation of boron interstitial clusters is a key limiting factor for the fabrication of highly-conductive ultrashallow doped regions in future silicon-based device technology. Optimized vacancy engineering strongly reduces boron clustering, enabling low-temperature electrical activation to levels rivalling what can be achieved with conventional pre-amorphization and solid-phase epitaxial regrowth. An optimized 160-keV silicon implant in a 55/145nm silicon-on-insulator structure enables stable activation of a 500eV boron implant to a concentration ~ 5x1020cm-3
Formation of highly activated, ultra-shallow and abrupt profiles is a key requirement for the next g...
International audienceLow-energy implantation is one of the most promising options for ultrashallow ...
30 keV boron ions are implanted at doses of 2x1014 and 2x1015 cm−2 in 100 silicon wafers kept at roo...
As CMOS devices scale into the 45 nm process window, the requirements for the individual devices bec...
For the next generation of electronic products, transistors need to be reduced in size and are requi...
Simulation and physical experiments have shown that vacancy engineering implants have the potential ...
As the CMOS transistor scaling is approaching its physical limits, the semiconductor industry is for...
For the last 40 years a natural demand for faster, more complex, and therefore, more functional elec...
Forming highly stable, low resistive, ultra shallow p-type junctions is well known to be a challenge...
Preamorphization of ultrashallow implanted boron in silicon on insulator is optimized to produce an ...
Silicon on insulator (SOI - Smartcut(R)) wafers were implanted with 1MeV and 300keV silicon ions to ...
Forming highly conducting, ultra-shallow boron doped layers, is well known to be a challenge for fut...
International audienceThe formation and evolution of small cluster defects in 500 eV, 1×1015 cm−2 bo...
The nature of ion-implantation induced clusters of boron and silicon-self interstitials (BICs), and ...
A method for completely suppressing the transient enhanced diffusion ~TED! of boron implanted in pre...
Formation of highly activated, ultra-shallow and abrupt profiles is a key requirement for the next g...
International audienceLow-energy implantation is one of the most promising options for ultrashallow ...
30 keV boron ions are implanted at doses of 2x1014 and 2x1015 cm−2 in 100 silicon wafers kept at roo...
As CMOS devices scale into the 45 nm process window, the requirements for the individual devices bec...
For the next generation of electronic products, transistors need to be reduced in size and are requi...
Simulation and physical experiments have shown that vacancy engineering implants have the potential ...
As the CMOS transistor scaling is approaching its physical limits, the semiconductor industry is for...
For the last 40 years a natural demand for faster, more complex, and therefore, more functional elec...
Forming highly stable, low resistive, ultra shallow p-type junctions is well known to be a challenge...
Preamorphization of ultrashallow implanted boron in silicon on insulator is optimized to produce an ...
Silicon on insulator (SOI - Smartcut(R)) wafers were implanted with 1MeV and 300keV silicon ions to ...
Forming highly conducting, ultra-shallow boron doped layers, is well known to be a challenge for fut...
International audienceThe formation and evolution of small cluster defects in 500 eV, 1×1015 cm−2 bo...
The nature of ion-implantation induced clusters of boron and silicon-self interstitials (BICs), and ...
A method for completely suppressing the transient enhanced diffusion ~TED! of boron implanted in pre...
Formation of highly activated, ultra-shallow and abrupt profiles is a key requirement for the next g...
International audienceLow-energy implantation is one of the most promising options for ultrashallow ...
30 keV boron ions are implanted at doses of 2x1014 and 2x1015 cm−2 in 100 silicon wafers kept at roo...