基于0.13-μm CMOS的2.4GHz e级PA的高效功率控制方案

Luis A. Andia Montes, M. Raja, F. Wong, M. Je
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引用次数: 7

摘要

本文报道了一种适用于无线传感器网络的新型电路技术,该技术既不影响功率放大器的效率,又能改变其输出功率。为了保证稳健性,该技术允许在三个级联编码晶体管之间分配电压摆动。当PA电压源被扫频用于功率电平控制时,它的一个通用栅极晶体管的导通角通过一个镜像电流源来改变,以保证在所有功率电平下的高效率。为了验证这一概念,采用0.13μm CMOS工艺设计了用于蓝牙1类的自偏置三级联码E类功率放大器。测量结果表明,在最大输出功率为+20dBm的18dB功率控制范围内,功率附加效率(PAE)仅比59.2%的最大值降低了17.2%。与其他工作状态相比,该技术在最高功率下的PAE提高了15.6%,在最低功率下的PAE提高了35%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An efficient power control scheme for a 2.4GHz class-E PA in 0.13-μm CMOS
A novel circuit technique that does not compromise the efficiency, while varying the output power of power amplifiers, suitable for wireless sensor networks is reported in this paper. For robustness sake, the technique allows to distribute the voltage swing among three cascoded transistors. While PA voltage supply is swept for power level control, one of its common gate transistors conduction angle is varied through a mirrored current source to guarantee high efficiency at all power levels. To validate the concept, a self-biased triple cascode class E power amplifier for Bluetooth Class 1 has been designed using a 0.13μm CMOS process. Measurements show that the power added efficiency (PAE) decreases only by 17.2% from the maximum value of 59.2% over an 18dB power control range with +20dBm maximum output power. Compared to other state of the work, proposed technique demonstrates a PAE improvement of 15.6% at the highest power, 35% when operated at the lowest power.
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