The Role of Mobility Degradation in the BTI-Induced RO Aging in a 28-nm Bulk CMOS Technology: (Student paper)

D. Sangani, J. Diaz-Fortuny, E. Bury, B. Kaczer, G. Gielen
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Abstract

Shrinking reliability margins have created an increasing demand for circuit aging simulations, which enable product reliability assessment pre-production. Physical Design Kits (PDKs) of modern technologies have started to include compact models for transistor degradation mechanisms along with a dedicated reliability simulation framework. In this work, we present a study of the commercial aging models in a 28-nm CMOS technology from a designer perspective by comparison of the simulations with extensive measurement data at the device and the circuit level (ring oscillators). Moreover, using our custom table model compiled from our device-level measurement data, we model the BTI-driven component of circuit-level degradation and provide convincing evidence that mobility degradation due to NBTI plays an important role in the circuit aging phenomenon, thus emphasizing its need in SPICE-level NBTI models.
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迁移率退化在28纳米块体CMOS技术中bti诱导的RO老化中的作用:(学生论文)
可靠性边际的缩小导致对电路老化模拟的需求不断增加,这使得产品可靠性评估能够在生产前进行。现代技术的物理设计套件(pdk)已经开始包括晶体管退化机制的紧凑模型以及专用的可靠性仿真框架。在这项工作中,我们从设计人员的角度对28纳米CMOS技术中的商业老化模型进行了研究,并将模拟与器件和电路级(环形振荡器)的大量测量数据进行了比较。此外,利用我们从设备级测量数据中编译的自定义表模型,我们建立了bti驱动的电路级退化组件的模型,并提供了令人信服的证据,证明由NBTI引起的迁移率退化在电路老化现象中起着重要作用,从而强调了在spice级NBTI模型中的必要性。
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