射频应用中基于表面电位的GFET物理紧凑模型

Lingfei Wang, Song-ang Peng, Z. Zong, Ling Li, Wen Wang, Guangwei Xu, Nianduan Lu, Z. Ji, Zhi Jin, Ming Liu
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引用次数: 1

摘要

我们首次提出了基于连续表面电位的GFET物理紧凑模型,并根据器件测量对我们的工作进行了基准测试。该模型基于半经典玻尔兹曼输运和热激活输运理论,包括远程和短程散射机制。因此,模型依赖于温度。同时,给出了相应的关键物理参数提取方法。此外,紧凑的模型在Verilog-A中编码,可以在供应商的CAD工具中实现。该模型提供了基于物理的直流和交流器件特性的一致描述,并实现了GFET的精确电路级性能估计和射频电路设计。
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A new surface potential based physical compact model for GFET in RF applications
For the first time, we present a continuous surface potential based physical compact model for GFET and benchmark our work against device measurements. This model is based on semi-classical Boltzmann transport and thermally activated transport theories, including both remote and short range scattering mechanisms. Therefore the model is temperature dependent. Meanwhile, we provide the corresponding method to extract the key physical parameters. Furthermore, the compact model is coded in Verilog-A, and can be implemented in vendor CAD tools. The model provides a physics-based consistent description of DC and AC device characteristics and enables accurate circuit-level performance estimation and RF circuit design of GFET.
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