K. Gettings, Andrew K. Bolstad, Show-Yah Stuart Chen, M. Ericson, B. Miller, M. Vai
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引用次数: 8
摘要
我们提出了一种有效的结构来实现抗混叠射频滤波器的片上非线性均衡。稀疏多项式均衡器(SPEq)通过均衡器和滤波器的共同设计实现了大量的功耗节约,这允许包括正确数量的处理元件,滤波器抽头和位,以最大限度地提高性能和最小化功耗。该架构采用VHDL语言实现,采用CMOS 65nm工艺制作。测试结果表明,不受欢迎的马刺队压制噪音楼附近,改善系统的25 dB spur-free动态范围的中值情况下,和消费少于12 mW堆芯功率的操作在200 MHz。
Low Power Sparse Polynomial Equalizer (SPEQ) for Nonlinear Digital Compensation of an Active Anti-Alias Filter
We present an efficient architecture to perform on-chip non-linear equalization of an anti-alias RF filter. The sparse polynomial equalizer (SPEq) achieves substantial power savings through co-design of the equalizer and the filter, which allows including the right number of processing elements, filter taps, and bits to maximize performance and minimize power consumption. The architecture was implemented in VHDL and fabricated in CMOS 65 nm technology. Testing results show that undesired spurs are suppressed to near the noise floor, improving the system's spur-free dynamic range by 25 dB in the median case, and consuming less than 12 mW of core power when operating at 200 MHz.