Quality control for a network of SeaSonde HF radars

H. Roarty, Michael Smith, C. Evans, E. Handel, J. Kohut, S. Glenn
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Abstract

The proliferation of HF radar networks around the globe has made them a vital component of the ocean observing endeavor. There are approximately thirty-four nations with oceanographic HF radar networks, eight of which have over 10 radar stations in their network. Providing high quality measurements for sustained periods of time is of the utmost importance. The global HF radar network has been established to meet this goal. The network was established in 2012 with the goal of increasing the number of coastal radars, develop emerging applications of the data and to deliver a set of easy to use standard products. The network was established under the Group on Earth Observations (GEO) work plan for 2012-2015. The work plan endorses a task to plan a Global HF Radar Network for data sharing and data delivery and to promote the proliferation of HF radar surface current velocity measurements. The goal of this paper is to propose quality standards for this global network. In this paper we will take inventory of the existing quality assurance and quality control measures that have been proposed at the radial level and offer measures to manage the systems on a network level. We have developed a best practices checklist for validating and operating a HF radar stations in the Mid Atlantic - a checklist that can be transferred to other regions nationally and internationally. Some of these techniques include the comparison of radials from measured and ideal beam patterns. We have also performed beam pattern sensitivity tests, first order line settings tests, angular segmentation tests and different time averaging schemes on the radial data. We share the results of those tests here so that they may be replicated by other operators to strengthen the methodology. We propose best practices for the operation of a High Frequency radar network. The techniques outlined in this paper have shown an increased accuracy of the measured radial currents and a better understanding of the data processing stream associated with the particular HF radar system. The other networks around the globe can adopt the methods and best practices outlined in this paper. The other networks can also provide input to these methods and best practices which will result in an improved surface current measurement.
季节性高频雷达网络的质量控制
高频雷达网络在全球范围内的扩散使其成为海洋观测工作的重要组成部分。大约有34个国家拥有海洋高频雷达网络,其中8个国家的网络中有10多个雷达站。为持续的时间段提供高质量的测量是至关重要的。为实现这一目标,建立了全球高频雷达网。该网络成立于2012年,目标是增加沿海雷达的数量,开发数据的新兴应用,并提供一套易于使用的标准产品。该网络是根据地球观测组织(GEO) 2012-2015年工作计划建立的。该工作计划支持一项任务,即规划一个用于数据共享和数据交付的全球高频雷达网络,并促进高频雷达表面流速测量的普及。本文的目的是为这一全球网络提出质量标准。在本文中,我们将对现有的质量保证和质量控制措施进行盘点,这些措施已经在径向水平上提出,并提供在网络水平上管理系统的措施。我们已经制定了一份最佳实践清单,用于验证和操作大西洋中部的高频雷达站,该清单可以转让给国内和国际其他地区。其中一些技术包括从测量和理想光束模式的径向比较。我们还对径向数据进行了波束模式灵敏度测试、一阶线设置测试、角度分割测试和不同的时间平均方案。我们在此分享这些测试的结果,以便其他运营商可以复制这些结果,以加强方法。我们提出了高频雷达网络运行的最佳实践。本文概述的技术表明,测量的径向电流的精度提高了,并且更好地理解了与特定高频雷达系统相关的数据处理流。全球其他网络可以采用本文概述的方法和最佳实践。其他网络也可以为这些方法和最佳实践提供输入,从而改进表面电流测量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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