基于非接触式微波传感的路面状况运行时分析

J. Blanche, D. Mitchell, D. Flynn
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引用次数: 5

摘要

冬季道路的安全管理取决于有针对性地分发盐。盐的分散不足会造成危险的驾驶条件,而过量的沉积会造成不利的环境影响并浪费宝贵的资源。本文介绍了调频连续波雷达(FMCW)用于路面盐含量实时检测的分析结果。实验在实验室条件和现场试验中进行,FMCW传感器安装在商用道路磨砂机上。在工业标准的盐分散浓度下,我们测试了FMCW对混凝土冰融、冰上海洋岩盐和棕盐盐水浓度的敏感性。结果表明,在实验室和现场条件下,k波段的FMCW对盐水和岩盐敏感。在传感器视场中观察到的增量盐残留物一致的结果,其中返回信号在实验室中一致在0.5-3 × 106绝对单位(a.u)范围内,在现场一致在10-50 (a.u)范围内。我们建议FMCW特别适用于检测肉眼看不到的黑冰、盐水溶液浓度和残盐。FMCW传感在提供以前无法获得的与运行时动态路面状况和环境监测相关的数据方面具有重要的前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Run-Time Analysis of Road Surface Conditions Using Non-Contact Microwave Sensing
Safety management of winter roads is dependent on targeted distributions of salt. Insufficient salt dispersal results in dangerous driving conditions, while excessive deposition results in adverse environmental effects and wastes valuable resources. In this paper we present the results of Frequency Modulated Continuous Wave radar (FMCW) analysis for real-time salt detection on road surfaces. Experiments are conducted within laboratory conditions and field trials, with the FMCW sensor installed onto a commercial road gritter. Performed to industry-standard salt dispersal concentrations, we test FMCW sensitivity to ice-thaw on concrete, marine rock-salt on ice and brown-salt brine concentrations. Results demonstrate that FMCW in the K-band is sensitive to brine and rock-salt in both laboratory and field conditions. Consistent results for incremental salt residues in the field of view of the sensor are observed, where the return signal is consistently within a 0.5-3 x106 absolute unit (a.u.) range in the laboratory and a 10–50 (a.u.) range in the field. We propose that FMCW is uniquely suited to detecting black ice, concentrations of brine solutions and residual salt, invisible to visual inspection. FMCW sensing holds significant prospect for providing previously inaccessible data relating to runtime dynamic road surface conditions and environmental monitoring.
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