无线麦克风的DSA操作参数

T. Erpek, M. McHenry, Andrew Stirling
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引用次数: 8

摘要

本文研究了人为噪声对无线传声器工作的影响。在弗吉尼亚州维也纳的不同地点进行了人为噪声测量,并分析了潜在无线麦克风信道中人为噪声的干扰量。数据采集结果表明,人为噪声水平可高达30分贝以上的热噪声底。我们的研究结果表明,为了应对高人为噪声水平(>60 dB)的不利影响,无线麦克风必须具有高信噪比。此外,在弗吉尼亚州维也纳进行了无线麦克风路径损耗测量,以确定DSA设备所需的排除距离,以确保无线麦克风可靠运行。结果表明,当采用人造噪声测量结果和无线传声器传播测量结果时,所需的隔离区可以安全保守地设置在130 m左右。共享频谱公司还进行了无线麦克风模拟,以确定无损伤无线麦克风操作所需的传感阈值水平。基于无线传声器路径损耗测量结果,建立了室内外路径损耗模型。该统计路径损耗模型用于确定DSA设备和无线麦克风接收器接收到的信号电平(干扰电平)。我们的研究结果表明,当使用人为噪声和代表性传播模型时,所需的传感阈值可以设置在-110 dBm左右(在110 kHz通道中)。
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DSA Operational Parameters with Wireless Microphones
The effect of man-made noise in wireless microphone operation has been studied in this paper. Man-made noise measurements were taken in different locations in Vienna, VA and the amount of interference from man-made noise in potential wireless microphone channels were analyzed. Data collection results show that man-made noise levels can be up to 30 dB above the thermal noise floor. Our results show that wireless microphones have to have a high signal-to-noise ratio in order to cope with the adverse effects of high man-made noise levels (>60 dB). Furthermore, wireless microphone path loss measurements were conducted in Vienna, VA to determine the required exclusion distance for DSA devices to ensure reliable wireless microphone operation. The results show that the required exclusion zone can be safely and conservatively set at around 130 m when the results from man-made noise measurements and wireless microphone propagation measurements are used. Shared Spectrum Company also worked on a wireless microphone simulation to determine the required sensing threshold levels for impairment-free wireless microphone operation. An indoor-to-outdoor path loss model was created based on the wireless microphone path loss measurement results. This statistical path loss model was used to determine the received signal level at DSA devices and wireless microphone receiver (interference level). Our results show that the required sensing threshold can be set at around -110 dBm (in a 110 kHz channel) when man-made noise and representative propagation models are used.
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