22mw多标准可重构频谱传感数字前端

L. Hollevoet, S. Pollin, P. V. Wesemael, F. Naessens, A. Dejonghe, L. Perre
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引用次数: 2

摘要

认知无线电要求无线电系统的架构能够有效地结合接收和频谱监测功能。我们提出了一个灵活的数字前端,支持并发同步和高吞吐量无线标准的感知。该芯片采用65纳米CMOS技术,芯片面积为6.4 mm2。细粒时钟门控允许同步在4兆瓦和传感在7兆瓦的功耗。该芯片与可重构模拟前端相结合的实验表明,基于能量检测的1.7 GHz宽频带可以在10 ms的极低时间窗内扫描,功耗为13 mW。实现并测量了DVB-T信号的特征检测,在输入功率为-106 dBm,功耗为7 mW的情况下,实现了单个自相关步骤的性能目标虚警率为10%,检测概率为90%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A 22 mW Multi-Standard Reconfigurable Spectrum Sensing Enabled Digital Frontend
Cognitive Radio requires the architecture of radio systems to combine reception and spectrum monitoring functionality efficiently. We propose a flexible digital front end that supports concurrent synchronization and sensing of high-throughput wireless standards. The chip is implemented in 65 nm CMOS technology resulting in a chip area of 6.4 mm2. Fine grain clock gating allows synchronization at 4 mW and sensing at 7 mW power consumption. Experiments with the chip in combination with a reconfigurable analog front end show that a 1.7 GHz wide frequency band can be scanned based on energy detection in an exceptionally low time window of 10 ms while consuming 13 mW power. Feature detection of DVB-T signals is implemented and measured as well and achieves for a single autocorrelation step a performance target false alarm rate of 10% and detection probability of 90% at an input power level of -106 dBm while consuming 7 mW power.
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