Boron penetration through gate oxide from decaborane gate electrode implantation

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Boron penetration through gate oxide from decaborane gate electrode implantation

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Boron penetration from the gate electrode into the Si substrate presents a significant problem in advanced PMOS device fabrication. It is known that hydrogen enhances B diffusion in silicon dioxide. It is shown that hydrogen from decaborane gate electrode implants also enhances boron penetration leading to a degradation of PMOS transistor parameters.

Inspec keywords: ion implantation; boron; MOSFET; diffusion; semiconductor device reliability

Other keywords: B penetration; gate oxide; Si substrate; B10H14; 0.16 micron; PMOS device fabrication; decaborane gate electrode implants; gate electrode; Si:B-SiO2; B10H14 gate electrode implantation; hydrogen enhanced B diffusion; Si; PMOS transistor parameter degradation; dual-polysilicon W-polycide CMOS technology

Subjects: Insulated gate field effect transistors; Maintenance and reliability; Reliability; Semiconductor doping

References

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      • R.B. Fair . Physical models of boron diffusion in ultrathin gate oxides. J. Electrochem. Soc. , 2 , 708 - 717
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