具有模拟分段线性插值的30年频率范围正弦波合成器

F. Gagliardi, Andrea Ria, G. Manfredini, P. Bruschi, M. Piotto
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引用次数: 0

摘要

在这项工作中,我们提出了一种用于小尺寸和低功耗应用的正弦信号片上合成的新方法。提出的解决方案的原始方面是能够产生线性插值信号的模拟插值的手段。这就产生了显著的失真性能和较低的电路复杂度。通过在采用标准$0.18\mu{\math} m}$ CMOS工艺设计的原型上进行电学模拟,验证了所提出方法的潜力。在100 kHz正弦波频率下,考虑到线性插值隐含的混叠效应,得到了低至0.59%的THD。功耗约为300 $\mu{\ mathm W}$。还评估了在30年宽范围内改变正弦波频率的可能性。$f_{0}=100 {\ mathm kHz}$的50次蒙特卡罗运行结果表明,最坏情况下THD约为1.3%。
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A 3-decade-frequency-range Sinewave Synthesizer with Analog Piecewise-linear Interpolation
In this work, we present a novel approach for the on-chip synthesis of sinusoidal signals for low-size and low-power applications. The original aspect of the proposed solution is the ability to generate linearly interpolated signals by means of analog interpolation. This gives rise to notable distortion performances with a low circuit complexity. The potentiality of the proposed approach was verified by means of electrical simulations performed on a prototype designed with a standard $0.18\mu{\mathrm m}$ CMOS process. A THD as low as 0.59%, calculated considering also the aliasing effect implied by the linear interpolation, was obtained at a 100 kHz sinewave frequency. The power consumption is around 300 $\mu{\mathrm W}$. The possibility of varying the sinewave frequency in a 3-decade wide range was also assessed. Results obtained from 50 Monte Carlo runs at $f_{0}=100 {\mathrm kHz}$ indicated a worst-case THD around 1.3%.
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