具有超薄氮化物/氧化氮化物堆叠栅电介质和预掺杂双多晶硅栅电极的高性能40 nm CMOS

Q. Xiang, J. Jeon, P. Sachdey, B. Yu, K. Saraswat, M. Lin
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引用次数: 9

摘要

在这项工作中,我们报告了具有40 nm物理栅极长度,12 A (EOT)氮化物/氧氮化物(N/O)堆叠栅极介质和双预掺杂多晶硅栅极的高性能CMOS器件。高质量N/O堆叠栅电介质具有很强的抗硼渗透能力,因此不仅可以用于NMOS,还可以用于PMOS,从而最大限度地减少聚损耗并提高性能。在室温和电源Vdd为1.5 V的条件下,NMOS的驱动电流为1.12 mA/um, PMOS的驱动电流为545 uA/um,两种器件的失态泄漏Idoff均为20 nA/um。在低温-50℃和适当的正向偏置下,这些器件显示出NMOS的驱动电流为1.4 mA/m/um (@ 20 nA/um Idoff), PMOS的驱动电流为620 uA/um (@ 20 nA/um Idoff)。这些是迄今为止报道的最高40纳米CMOS性能数据。
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Very high performance 40 nm CMOS with ultra-thin nitride/oxynitride stack gate dielectric and pre-doped dual poly-Si gate electrodes
In this work, we report very high performance CMOS devices with 40 nm physical gate length, 12 A (EOT) nitride/oxynitride (N/O) stack gate dielectrics, and dual pre-doped poly-Si gate electrodes. The strong boron penetration resistance of the high quality N/O stack gate dielectric allows pre-doped poly gates not only for NMOS, but also for PMOS, to minimize poly depletion and improve performance. At room temperature and power supply Vdd of 1.5 V, drive currents of 1.12 mA/um for NMOS and 545 uA/um for PMOS are achieved at off-state leakage Idoff of both devices on the order of 20 nA/um. At low temperature of -50 C and proper forward body biases, those devices showed drive currents of 1.4 mA/m/um (@ 20 nA/um Idoff) for NMOS and 620 uA/um (@ 20 nA/um Idoff) for PMOS. These represent the highest 40 nm CMOS performance figures reported to date.
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