超薄体GeOI逻辑电路的功率性能分析

V. Hu, M. Fan, P. Su, C. Chuang
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引用次数: 1

摘要

这项工作分析了用于逻辑电路应用的新兴超薄体(UTB) GeOI器件的功率性能。研究了温度和Vdd标度对泄漏/延迟的影响。与亚阈值泄漏主导的SOI器件/电路相比,带对带隧道主导的GeOI器件/电路泄漏电流对温度的敏感性较低。在300°K和同等延迟条件下,较小带隙的GeOI逆变器在Vdd = 1.0V时的漏电流比SOI逆变器大,而在Vdd = 0.8V时的漏电流比SOI逆变器小。在400°K时,与SOI逆变器相比,在Vdd = 0.6 ~ 1.0V时,GeOI逆变器显示出更低的泄漏和更低的延迟,这是由于与亚阈值泄漏相比,带对带隧道泄漏的温度依赖性更弱。与SOI双向NAND和NOR相比,GeOI双向NAND和NOR在Vdd = 0.5V或400°K时显示出更小的泄漏电流,这是由于与亚阈值泄漏相比,带间隧道泄漏对温度的敏感性较低。与400°K时的GeOI多米诺骨牌门相比,SOI多米诺骨牌门的最坏情况噪声(动态节点电压下降)下降了5倍,最坏情况延迟增加了1.4倍。在300°K (Vdd < 0.8V)和400°K (Vdd = 0.5 ~ 1.0V)时,GeOI锁存器泄漏比SOI锁存器泄漏小。
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Analysis of power-performance for Ultra-Thin-Body GeOI logic circuits
This work analyzes the power-performance of the emerging Ultra-Thin-Body (UTB) GeOI devices for logic circuit applications. The impacts of temperature and Vdd scaling on the leakage/delay are studied. Compared with the subthreshold leakage dominated SOI devices/circuits, the band-to-band tunneling dominated leakage currents of GeOI devices/circuits show less sensitivity to temperature. At 300°K and comparable delay, GeOI inverter with smaller band-gap shows larger leakage than the SOI inverter at Vdd = 1.0V, while exhibits lower leakage than the SOI inverter at Vdd = 0.8V. At 400°K, GeOI inverter shows both lower leakage and lower delay at Vdd = 0.6∼1.0V compared with the SOI counterpart, due to the weaker temperature dependence of band-to-band tunneling leakage compared with subthreshold leakage. Compared with the SOI Two-Way NAND and NOR, the GeOI Two-Way NAND and NOR show smaller leakage currents at Vdd = 0.5V or 400°K as the band-to-band tunneling leakage is less sensitive to temperature compared with the subthreshold leakage. Compared with the GeOI domino gate at 400°K, the SOI domino gate shows 5 times degradation in the worst-case noise (dynamic node voltage droop) and 1.4 times increase in the worst-case delay. The GeOI latch leakages are smaller than the SOI counterparts at 300°K (Vdd < 0.8V) and 400°K (Vdd = 0.5∼1.0V).
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