基于电容堆叠的二阶延迟单元的0.5-4GHz全双工多域自干扰消除接收机

Chuangguo Wang, Wei Li, Fan Chen, Wen Zuo, Yunyou Pu, Hongtao Xu
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引用次数: 1

摘要

纳秒级片上延迟对于全双工(FD)系统中集成宽带自干扰消除(SIC)至关重要,特别是对于射频(RF)域的SIC。本文提出了一种基于电容叠加的二阶延迟单元的多域SIC FD接收机,该接收机在射频抵消器中打破了延迟、损耗、尺寸和噪声之间的权衡。采用65nm CMOS工艺制作了原型机。FD接收机工作频率为0.5-4GHz,增益为29-32dB。在2GHz本振(LO)频率下,射频消除器可以在消耗10mW的情况下实现2-8ns的延迟。基带(BB)消除器可以在消耗4.4mW的情况下实现9-15ns的延迟。在应用商业环行器(隔离度23-26dB)的情况下,这些大纳秒级延迟确保在20MHz调制信号带宽上超过34dB SIC。在FD模式下,射频和BB消去器分别将接收机噪声系数(NF)降低0.9dB和0.4dB。接收机功率处理提高了11.5dB。有源芯片面积仅为0.4mm2。
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A 0.5-4GHz Full-Duplex Receiver with Multi-Domain Self-Interference Cancellation Using Capacitor Stacking Based Second-Order Delay Cells in RF Canceller
Nanosecond-scale on-chip delay is critical for integrated wideband self-interference cancellation (SIC) in full-duplex (FD) system, especially for radio frequency (RF) domain SIC. In this paper, we presented a FD receiver with multi-domain SIC using capacitor stacking based second-order delay cell in the RF canceller which breaks the trade-off between delay, loss, size and noise. A prototype is fabricated in 65nm CMOS process. The FD receiver can operate in 0.5-4GHz with gain of 29-32dB. At 2GHz local oscillator (LO) frequency, the RF canceller can achieve delay of 2-8ns while consuming 10mW. The baseband (BB) canceller can achieve delay of 9-15ns while consuming 4.4mW. These large nanosecond-scale delays ensure more than 34dB SIC over 20MHz modulated signal bandwidth in case of applying a commercial circulator (isolation of 23-26dB). In FD mode, the RF and BB cancellers degrade the receiver noise figure (NF) by 0.9dB and 0.4dB, respectively. The receiver power handling is improved by 11.5dB. The active chip area is only 0.4mm2.
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