利用二阶互调注入实现射频混频器线性化的数学技术

Hojat Khosrowjerdi, H. Nabovati, R. Hedayati
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引用次数: 1

摘要

本文提出了一种应用数学方法,考察了二阶互调注入对消除三阶互调的影响,并通过计算得到电路参数,以获得电路的最佳IIP3响应。将所提出的数学方法应用于2.4 GHz下变频器吉尔伯特单元混频器。该混频器采用台积电0.18µm CMOS技术设计,并采用ADS2006A进行仿真。混合器的工作条件为电源电压1.8 v,总电流消耗2.7 mA。所提出的混频器提供11 dB转换增益和11.1 dB SSB噪声系数。这种数学线性化方法使IM3降低到14.4 dB, IIP3从1 dBm增加到8 dBm。该技术对混频器的转换增益和噪声级影响不大,只需要0.05 mA左右的少量电流。通过执行该技术,可以在10%的误差下获得最佳的IIP3,这是显着的,并且显示了它的高线性化能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A mathematical technique for RF mixer linearization using second order Intermodulation injection
In this paper, an applied mathematical method is proposed in which the effect of second order Intermodulation injection in elimination of the third order Intermodulation is examined and circuit parameters will be achieved with calculation to obtain the best IIP3 response of the circuit. The suggested mathematical technique is applied to a down converter Gilbert cell mixer in 2.4 GHz. This mixer is designed in TSMC 0.18 µm CMOS technology and is simulated using ADS2006A. The operation conditions of the mixer are 1.8 v supply voltage and total current consumption of 2.7 mA. The proposed mixer provides 11 dB conversion gain and 11.1 dB SSB noise figure. This mathematical linearization method causes IM3 to reduce to 14.4 dB and increases IIP3 from 1 dBm to 8 dBm. This technique does not have a significant effect on conversion gain and noise level of the mixer and only requires a small amount of current about 0.05 mA. By performing this technique the best IIP3 will be achieved with 10% error which is remarkable and shows its high ability in linearization.
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