基于动态负载和导数叠加技术的高速射频包络检测器设计

Yang Ge, Ximing Fu, Yadong Yin, K. El-Sankary
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引用次数: 0

摘要

利用动态负载和二阶非线性最大化技术,提出了一种高速、高转换增益的包络检测器。为了提高传统ED结构的转换增益和速度,本文提出的ED采用ab类结构的动态负载(DL)技术来提高速度和动态调整输出阻抗。利用微分叠加(DS)来改善微分方程的非线性。通过在不同的工作区域初始偏置ED的NMOS和PMOS晶体管,使跨导二阶导数(g2)最大化,从而增加了二阶转换增益。这种配置可以在不影响转换增益的情况下实现低功耗。仿真结果表明,采用0.18μm CMOS工艺的ED数据速率高达14.5Mbps,功耗仅为1.21μW。
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Design of a high-speed RF envelope detector with dynamic load and derivative superposition techniques
This paper presents a new high speed, high conversion gain envelope detector (ED) using dynamic load (DL) and 2nd order nonlinearity maximization techniques. To enhance the conversion gain and speed of conventional ED architectures, the proposed ED uses a dynamic load (DL) technique with class-AB architecture to increase the speed and tune the output impedance dynamically. To improve nonlinearity of the ED, derivative superposition (DS) is used. By biasing the NMOS and PMOS transistors of the ED initially in different regions of operation, 2nd order derivative of transconductance (g2) is maximized which increases the 2nd order conversion gain. This configuration enables low power consumption without compromising the conversion gain. Simulation results of the proposed ED in 0.18μm CMOS technology show a high data rate of 14.5Mbps with power consumption of 1.21μW.
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