用于 FinFET 技术高速收发器设计的新型 MOS 变容器设备优化和建模

J. Jing, Susan Wu, Xin Wu, P. Upadhyaya, Ade Bekele
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引用次数: 2

摘要

本文首次提出了一种优化的MOS变容管器件设计和一种新的基于物理的变容管模型,用于高速模拟应用的先进FinFET工艺。该变容器在工艺和单元设计上进行了优化,实现了锁相环设计的高调谐范围和低抖动。本文提出了一种新的基于BSIMCMG的物理变容管模型,并结合射频元件来全面描述高频应用中FinFET技术中的三维器件。描述了功率相关变容器的CV特性和精确VCO仿真的建模。新的变容管器件和模型已在16nm FinFET技术的32.75 GB/s高速收发器设计中得到验证。
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Novel MOS varactor device optimization and modeling for high-speed transceiver design in FinFET technology
For the first time, an optimized MOS varactor device design and a new physical based varactor model for advanced FinFET process is presented for high speed analog applications. The varactor is optimized in process and cell design to achieve high tuning range and low jitter for PLL design. A new physical BSIMCMG based varactor model is developed with RF components to fully describe the 3D device in FinFET technology for high frequency applications. The power dependent varactor CV characteristics and modeling for accurate VCO simulation is described. The new varactor device and model has been validated in 32.75 GB/s high speed transceiver design in 16nm FinFET technology.
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